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EP0786469B1 - Verfahren zur Vervendung von Nukleinsäureliganden - Google Patents

Verfahren zur Vervendung von Nukleinsäureliganden Download PDF

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Publication number
EP0786469B1
EP0786469B1 EP97200035A EP97200035A EP0786469B1 EP 0786469 B1 EP0786469 B1 EP 0786469B1 EP 97200035 A EP97200035 A EP 97200035A EP 97200035 A EP97200035 A EP 97200035A EP 0786469 B1 EP0786469 B1 EP 0786469B1
Authority
EP
European Patent Office
Prior art keywords
rna
ligand
target
nucleic acid
binding
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Expired - Lifetime
Application number
EP97200035A
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English (en)
French (fr)
Other versions
EP0786469A3 (de
EP0786469A2 (de
Inventor
Larry Gold
Craig Tuerk
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Gilead Sciences Inc
Original Assignee
Gilead Sciences Inc
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Application filed by Gilead Sciences Inc filed Critical Gilead Sciences Inc
Priority to EP05027853A priority Critical patent/EP1695978A1/de
Priority to EP04017602A priority patent/EP1493825A3/de
Publication of EP0786469A2 publication Critical patent/EP0786469A2/de
Publication of EP0786469A3 publication Critical patent/EP0786469A3/de
Application granted granted Critical
Publication of EP0786469B1 publication Critical patent/EP0786469B1/de
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    • C12N15/09—Recombinant DNA-technology
    • C12N15/11—DNA or RNA fragments; Modified forms thereof; Non-coding nucleic acids having a biological activity
    • C12N15/115—Aptamers, i.e. nucleic acids binding a target molecule specifically and with high affinity without hybridising therewith ; Nucleic acids binding to non-nucleic acids, e.g. aptamers
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    • A61K47/50—Medicinal preparations characterised by the non-active ingredients used, e.g. carriers or inert additives; Targeting or modifying agents chemically bound to the active ingredient the non-active ingredient being chemically bound to the active ingredient, e.g. polymer-drug conjugates
    • A61K47/51—Medicinal preparations characterised by the non-active ingredients used, e.g. carriers or inert additives; Targeting or modifying agents chemically bound to the active ingredient the non-active ingredient being chemically bound to the active ingredient, e.g. polymer-drug conjugates the non-active ingredient being a modifying agent
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    • G01N2333/976—Trypsin; Chymotrypsin

Definitions

  • a method for selecting a nucleic acid ligand that specifically binds any desired target molecule is termed SELEX, an acronym for Systematic Evolution of Ligands by Exponential enrichment.
  • the method of the invention (SELEX) is useful to isolate a nucleic acid ligand for a desired target molecule.
  • the nucleic acid products of the invention are useful for any purpose to which a binding reaction may be put, for example in assay methods, diagnostic procedures, cell sorting, as inhibitors of target molecule function, as probes, as sequestering agents and the like.
  • nucleic acid products of the invention can have catalytic activity.
  • Target molecules include natural and synthetic polymers, including proteins, polysaccharides, glycoproteins, hormones, receptors and cell surfaces, and small molecules such as drugs, metabolites, cofactors, transition state analogs and toxins.
  • proteins or small molecules are not Known to specifically bind to nucleic acids.
  • the known protein exceptions are those regulatory proteins such as repressors, polymerases, activators and the like which function in a living cell to bring about the transfer of genetic information encoded in the nucleic acids into cellular structures and the replication of the genetic material.
  • small molecules such as GTP bind to some intron RNAs.
  • nucleic acids either RNA or DNA
  • Crick both originally and in expanded form
  • nucleic acids can serve as templates for the synthesis of other nucleic acids through replicative processes that "read" the information in a template nucleic acid and thus yield complementary nucleic acids.
  • All of the experimental paradigms for genetics and gene expression depend on these properties of nucleic acids: in essence, double-stranded nucleic acids are informationally redundant because of the chemical concept of base pairs and because replicative processes are able to use that base pairing in a relatively error-free manner.
  • nucleic acids are thought to have narrower chemical possibilities than proteins, but to have an informational role that allows genetic information to be passed from virus to virus, cell to cell, and organism to organism.
  • nucleic acid components the nucleotides, must possess only pairs of surfaces that allow informational redundancy within a watson-Crick base pair. Nucleic acid components need not possess chemical differences and activities sufficient for either a wide range of binding or catalysis.
  • nucleic acids found in nature do participate in binding to certain target molecules and even a few instances of catalysis have been reported.
  • the range of activities of this kind is narrow compared to proteins and more specifically antibodies.
  • nucleic acids are known to bind to some protein targets with high affinity and specificity, the binding depends on the exact sequences of nucleotides that comprise the DNA or RNA ligand.
  • short double-stranded DNA sequences are known to bind to target proteins that repress or activate transcription in both prokaryotes and eukaryotes.
  • Other short double-stranded DNA sequences are known to bind to restriction endonucleases, protein targets that can be selected with high affinity and specificity.
  • double-stranded DNA has a well-known capacity to bind within the nooks and crannies of target proteins whose functions are directed to DNA binding.
  • Single-stranded DNA can also bind to some proteins with high affinity and specificity, although the number of examples is rather smaller. From the known examples of double-stranded DNA binding proteins, it has become possible to describe the binding interactions as involving various protein motifs projecting amino acid side chains into the major groove of B form double-stranded DNA, providing the sequence inspection that allows specificity.
  • Double-stranded RNA occasionally serves as a ligand for certain proteins, for example, the endonuclease RNase III from E. coli .
  • RNase III the endonuclease from E. coli .
  • target proteins that bind to single-stranded RNA ligands, although in these cases the single-stranded RNA often forms a complex three-dimensional shape that includes local regions of intramolecular double-strandedness.
  • the amino-acyl tRNA synthetases bind tightly to tRNA molecules with high specificity.
  • a short region within the genomes of RNA viruses binds tightly and with high specificity to the viral coat proteins.
  • a short sequence of RNA binds to the bacteriophage T4-encoded DNA polymerase, again with high affinity and specificity.
  • RNA and DNA ligands either double- or single-stranded, serving as binding partners for specific protein targets.
  • Most known DNA binding proteins bind specifically to double-stranded DNA, while most RNA binding proteins recognize single-stranded RNA.
  • This statistical bias in the literature no doubt reflects the present biosphere's statistical predisposition to use DNA as a double-stranded genome and RNA as a single-stranded entity in the many roles RNA plays beyond serving as a genome. Chemically there is no strong reason to dismiss single-stranded DNA as a fully able partner for specific protein interactions.
  • RNA and DNA have also been found to bind to smaller target molecules.
  • Double-stranded DNA binds to various antibiotics, such as actinomycin D.
  • a specific single-stranded RNA binds to the antibiotic thiostreptone; specific RNA sequences and structures probably bind to certain other antibiotics, especially those whose functions is to inactivate ribosomes in a target organism.
  • a family of evolutionarily related RNAs binds with specificity and decent affinity to nucleotides and nucleosides (Bass, B. and Cech, T. (1984) Nature 308: 820-826) as well as to one of the twenty amino acids (Yarus, M. (1988) Science 240 :1751-1758).
  • Catalytic RNAs are now known as well, although these molecules perform over a narrow range of chemical possibilities, which are thus far related largely to phosphodiester transfer reactions and hydrolysis of nucleic acids.
  • nucleic acids as chemical compounds can form a virtually limitless array of shapes, sizes and configurations, and are capable of a far broader repertoire of binding and catalytic functions than those displayed in biological systems.
  • RNA site of bacteriophage R17 coat protein binding has been identified by Uhlenbeck and coworkers.
  • the minimal natural RNA binding site (21 bases long) for the R17 coat protein was determined by subjecting variable-sized labeled fragments of the mRNA to nitrocellulose filter binding assays in which protein-RNA fragment complexes remain bound to the filter (Carey et al. (1983) Biochemistry 22 :2601).
  • a number of sequence variants of the minimal R17 coat protein binding site were created in vitro in order to determine the contributions of individual nucleic acids to protein binding (Uhlenbeck et al. (1983) J. Biomol.
  • the Q ⁇ coat protein RNA binding site was found to be similar to that of R17 in size, and in predicted secondary structure, in that it comprised about 20 bases with an 8 base pair hairpin structure which included a bulged nucleotide and a 3 base loop. In contrast to the R17 coat protein binding site, only one of the single-stranded residues of the loop is essential for binding and the presence of the bulged nucleotide is not required.
  • the protein-RNA binding interactions involved in translational regulation display significant specifity.
  • Nucleic acids are known to form secondary and tertiary structures in solution.
  • the double-stranded forms of DNA include the so-called B double-helical form, Z-DNA and superhelical twists (Rich, A. et al. (1984) Ann. Rev. Biochem. 53 :791-846).
  • Single-stranded RNA forms localized regions of secondary structure such as hairpin loops and pseudoknot structures (Schimmel, P. (1989) Cell 58 :9-12).
  • the phage RNA serves as a poly-cistronic messenger RNA directing translation of phage-specific proteins and also as a template for its own replication catalyzed by Q ⁇ RNA replicase.
  • This RNA replicase was shown to be highly specific for its own RNA templates.
  • Minor alterations in the conditions under which cycles of replication were performed were found to result in the accumulation of different RNAs, presumably because their replication was favored under the altered conditions.
  • RNA had to be bound efficiently by the replicase to initiate replication and had to serve as a kinetically favored template during elongation of RNA.
  • Kramer et al. (1974) J. Mol. Biol. 89 :719 reported the isolation of a mutant RNA template of Q ⁇ replicase, the replication of which was more resistant to inhibition by ethidium bromide than the natural template. It was suggested that this mutant was not present in the initial RNA population but was generated by sequential mutation during cycles of in vitro replication with Q ⁇ replicase. The only source of variation during selection was the intrinsic error rate during elongation by Q ⁇ replicase.
  • selection occurred by preferential amplification of one or more of a limited number of spontaneous variants of an initially homogenous RNA sequence. There was no selection of a desired result, only that which was intrinsic to the mode of action of Q ⁇ replicase.
  • RNAs which specifically cleave single-stranded DNA reported a method for identifying RNAs which specifically cleave single-stranded DNA.
  • the selection for catalytic activity was based on the ability of the ribozyme to catalyze the cleavage of a substrate ssRNA or DNA at a specific position and transfer the 3'-end of the substrate to the 3'-end of the ribozyme.
  • the product of the desired reaction was selected by using an oligodeoxynucleotide primer which could bind only to the completed product across the junction formed by the catalytic reaction and allowed selective reverse transcription of the ribozyme sequence.
  • the selected catalytic sequences were amplified by attachment of the promoter of T7 RNA polymerase to the 3'-end of the cDNA, followed by transcription to RNA.
  • the method was employed to identify from a small number of ribozyme variants the variant that was most reactive for cleavage of a selected substrate. Only a limited array of variants was testable, since variation depended upon single nucleotide changes occurring during amplification.
  • Oliphant et al (Molecular and Cellular Biology, July 1989, 2944-2949) describe a method for defining the sequence recognition properties of double stranded DNA-binding proteins by selecting high affinity binding sites from random-sequence DNA. In particular, they studied the yeast transcriptional activator protein GCN4.
  • Thiesen and Bach (Nucleic Acids Research, Vol. 18, No. 11, 3203-3209) describe a method designated Target Detection Assay (TDA) to determine DNA binding sites for putative double stranded DNA binding proteins.
  • TDA Target Detection Assay
  • nucleic acids are capable of a vastly broad range of functions and the methodology for realizing that capability is disclosed herein.
  • the present invention only relates to method comprising the specific binding in vitro of a nucleic acid ligand to a target molecule, as defined in the appended claims. It also relates to the use of a nucleic acid ligand as defined in the claims.
  • the present patent also describes a class of products which are nucleic acid molecules, each having a unique sequence, each of which has the property of binding specifically to a desired target compound or molecule. Each described compound is a specific ligand of a given target molecule.
  • the invention is based on the unique insight that nucleic acids have sufficient capacity for forming a variety of two- and three-dimensional structures and sufficient chemical versatility available within their monomers to act as ligands (form specific binding pairs) with virtually any chemical compound, whether monomeric or polymeric. Molecules of any size can serve as targets. Most commonly, and preferably, for therapeutic applications, binding takes place in aqueous solution at conditions of salt, temperature and pH near acceptable physiological limits.
  • the method involves selection from a mixture of candidates and step-wise iterations of structural improvement, using the same general selection theme, to achieve virtually any desired criterion of binding affinity and selectivity.
  • the method termed SELEX herein, includes steps of contacting the mixture with the target under conditions favorable for binding, partitioning unbound nucleic acids from those nucleic acids which have bound to target molecules, dissociating the nucleic acid-target pairs, amplifying the nucleic acids dissociated from the nucleic acid-target pairs to yield a ligand-enriched mixture of nucleic acids, then reiterating the steps of binding, partitioning, dissociating and amplifying through as many cycles as desired.
  • SELEX is based on the inventors' insight that within a nucleic acid mixture containing a large number of possible sequences and structures there is a wide range of binding affinities for a given target.
  • a nucleic acid mixture comprising, for example a 20 nucleotide randomized segment can have 4 20 candidate possibilities. Those which have the higher affinity constants for the target are most likely to bind.
  • a second nucleic acid mixture is generated, enriched for the higher binding affinity candidates. Additional rounds of selection progressively favor the best ligands until the resulting nucleic acid mixture is predominantly composed of only one or a few sequences. These can then be cloned, sequenced and individually tested for binding affinity as pure ligands.
  • Cycles of selection and amplification are repeated until a desired goal is achieved. In the most general case, selection/amplification is continued until no significant improvement in binding strength is achieved on repetition of the cycle.
  • the iterative selection/ amplification method is sensitive enough to allow isolation of a single sequence variant in a mixture containing at least 65,000 sequence variants. The method is even capable of isolating a small number of high affinity sequences in a mixture containing 10 14 sequences. The method could, in principle, be used to sample as many as about 10 18 different nucleic acid species.
  • the nucleic acids of the test mixture preferably include a randomized sequence portion as well as conserved sequences necessary for efficient amplification.
  • Nucleic acid sequence variants can be produced in a number of ways including synthesis of randomized nucleic acid sequences and size selection from randomly cleaved cellular nucleic acids.
  • the variable sequence portion may contain fully or partially random sequence; it may also contain subportions of conserved sequence incorporated with randomized sequence. Sequence variation in test nucleic acids can be introduced or increased by mutagenesis before or during the selection/amplification iterations.
  • the selection process is so efficient at isolating those nucleic acid ligands that bind most strongly to the selected target, that only one cycle of selection and amplification is required.
  • Such an efficient selection may occur, for example, in a chromatographic-type process wherein the ability of nucleic acids to associate with targets bound on a column operates in such a manner that the column is sufficiently able to allow separation and isolation of the highest affinity nucleic acid ligands.
  • the target-specific nucleic acid ligand solution may include a family of nucleic acid structures or motifs that have a number of conserved sequences and a number of sequences which can be substituted or added without significantly effecting the affinity of the nucleic acid ligands to the target.
  • the second series of SELEX will fix those conserved regions of the nucleic acid ligand family while randomizing all other positions in the ligand structure.
  • the sequence of the most representative member of the nucleic acid ligand family may be used as the basis of a SELEX process wherein the original pool of nucleic acid sequences is not completely randomized but contains biases towards the next known ligand. By these methods it is possible to optimize the SELEX process to arrive at the most preferred nucleic acid ligands.
  • nucleic acid primary, secondary and tertiary structures are known to exist.
  • the structures or motifs that have been shown most commonly to be involved in non-Watson-Crick type interactions are referred to as hairpin loops, symmetric and asymmetric bulges, psuedoknots and myriad combinations of the same.
  • Almost all known cases of such motifs suggest that they can be formed in a nucleic acid sequence of no more than 30 nucleotides. For this reason, it is preferred that SELEX procedures with contiguous randomized segments be initiated with nucleic acid sequences containing a randomized segment of between about 20-50 nucleotides.
  • the invention includes a candidate mixture comprised of nucleic acids, said nucleic acids comprised of a conserved nucleotide segment and a randomized nucleotide segment.
  • said randomized segment is a contiguous string of at least about 15 nucleotides, more preferably at least about 25 nucleotides and in the most preferred embodiments between 25 and 40 nucleotides.
  • This invention includes a candidate mixture of starting solution containing at least about 10 9 nucleic acids, preferably at least about 10 14 nucleic acids.
  • this invention includes solutions comprising a mixture of between about 10 9 to 10 18 nucleic acid sequences having a contiguous randomized sequence of at least about 15 nucleotides in length.
  • the randomized section of sequences is flanked by fixed or conserved sequences especially those that facilitate the amplification of the ligands.
  • the ligand affinity can be increased by applying SELEX to a mixture of candidates comprising a first selected sequence and second randomized sequence.
  • the sequence of the first selected ligand associated with binding or subportions thereof can be introduced into the randomized portion of the nucleic acids of a second test mixture.
  • the SELEX procedure is repeated with the second test mixture to isolate a second nucleic acid ligand, having two sequences selected for binding to the target, which has increased binding strength or increased specificity of binding compared to the first nucleic acid ligand isolated.
  • the sequence of the second nucleic acid ligand associated with binding to the target can then be introduced into the variable portion of the nucleic acids of a third test mixture which, after cycles of SELEX results in a third nucleic acid ligand. These procedures can be repeated until a nucleic acid ligand of a desired binding strength or a desired specificity of binding to the target molecule is achieved.
  • the process of iterative selection and combination of nucleic acid sequence elements that bind to a selected target molecule is herein designated "walking," a term which implies the optimized binding to other accessible areas of a macromolecular target surface or cleft, starting from a first binding domain. Increasing the area of binding contact between ligand and target can increase the affinity constant of the binding reaction. These walking procedures are particularly useful for the isolation of nucleic acid antibodies which are highly specific for binding to a particular target molecule.
  • a variant of the walking procedure employs a non-nucleic acid ligand termed "anchor" which binds to the target molecule as a first binding domain.
  • This anchor molecule can in principle be any non-nucleic acid molecule that binds to the target molecule and which can be covalently linked directly or indirectly to a nucleic acid.
  • the target molecule is an enzyme, for example, the anchor molecule can be an inhibitor or substrate of that enzyme.
  • the anchor can also be an antibody or antibody fragment specific for the target.
  • the anchor molecule is covalently linked to a nucleic acid oligomer of known sequence to produce a bridging molecule.
  • the oligomer is preferably comprised of a minimum of about 3 - 10 bases.
  • a test mixture of candidate nucleic acids is then prepared which includes a randomized portion and a sequence conplementary to the known sequence of the bridging molecule.
  • the bridging molecule is complexed to the target molecule.
  • SELEX is then applied to select nucleic acids which bind to the complex of the bridging molecule and the target molecule.
  • Nucleic acid ligands which bind to the complex are isolated. Walking procedures as described above can then be applied to obtain nucleic acid ligands with increased binding strength or increased specificity of binding to the complex. Walking procedures could employ selections for binding to the complex or the target itself. This method is particularly useful to isolate nucleic acid ligands which bind at a particular site within the target molecule.
  • the complementary sequence in the test mixture acts to ensure the isolation of nucleic acid sequences which bind to the target molecule at or near the binding site of the bridging molecule. If the bridging molecule is derived from an inhibitor of the target molecule, this method is likely to result in a nucleic acid ligand which inhibits the function of the target molecule. It is particularly useful, for example, for the isolation of nucleic acids which will activate or inhibit protein function.
  • the combination of ligand and target can have a new or enhanced function.
  • nucleic acid ligands herein described may contoin a plurality of ligand components.
  • nucleic acid ligands derived by walking procedures may be considered as having more than one nucleic acid ligand component.
  • nucleic acid antibodies that are constructed based on the results obtained by SELEX while not being identical to a nucleic acid ligand identified by SELEX.
  • a nucleic acid antibody may be constructed wherein a plurality of identical ligand structures are made part of a single nucleic acid.
  • SELEX may identify more than one family of nucleic acid ligands to a given target.
  • a single nucleic acid antibody may be constructed containing a plurality of different ligand structures.
  • SELEX experiments also may be performed wherein fixed identical or different ligand structures are joined by random nucleotide regions and/or regions of varying distance between the fixed ligand structures to identify the best nucleic acid antibodies.
  • Screens, selections or assays to assess the effect of binding of a nucleic acid ligand on the function of the target molecule can be readily combined with the SELEX methods. Specifically, screens for inhibition or activation of enzyme activity can be combined with the SELEX methods.
  • the SELEX method provides a rapid means for isolating and identifying nucleic acid ligands which bind to proteins, including both nucleic acid-binding proteins and proteins not known to bind nucleic acids as part of their biological function.
  • Nucleic acid-binding proteins include among many others polymerases and reverse transcriptases. The methods can also be readily applied to proteins which bind nucleotides, nucleosides, nucleotide cofactors and structurally related molecules.
  • the present invention provides a method for detecting the presence or absence of, and/or measuring the amount of a target molecule in a sample, which method employs a nucleic acid ligand which can be isolated by the methods described herein. Detection of the target molecule is mediated by its binding to a nucleic acid ligand specific for that target molecule.
  • the nucleic acid ligand can be labeled, for example radiolabled, to allow qualitative or quantitative detection.
  • the detection method is particularly useful for target molecules which are proteins.
  • the method is more particularly useful for detection of proteins which are not known to bind nucleic acids as part of their biological function.
  • nucleic acid ligands of the present invention can be employed in diagnostics in a manner similar to conventional antibody-based diagnostics.
  • One advantage of nucleic acid ligands over conventional antibodies in such detection method and diagnostics is that nucleic acids are capable of being readily amplified in vitro, for example, by use of PCR amplification or related methods.
  • Another advantage is that the entire SELEX process is carried out in vitro and does not require immunizing test animals.
  • the binding affinity of nucleic acid ligands can be tailored to the user's needs.
  • Nucleic acid ligands of small molecule targets are useful as diagnostic assay reagents and have therapeutic uses as sequestering agents, drug delivery vehicles and modifiers of hormone action.
  • Catalytic nucleic acids are selectable products of this invention. For example, by selecting for binding to transition state analogs of an enzyme catalyzed reaction, catalytic nucleic acids can be selected.
  • the present invention provides a method for modifying the function of a target molecule using nucleic acid ligands which can be isolated by SELEX.
  • Nucleic acid ligands which bind to a target molecule are screened to select those which specifically modify function of the target molecule, for example to select inhibitors or activators of the function of the target molecule.
  • An amount of the selected nucleic acid ligand which is effective for modifying the function of the target is combined with the target molecule to achieve the desired functional modification.
  • This method is particularly applicable to target molecules which are proteins.
  • a particularly useful application of this method is to inhibit protein function, for example to inhibit receptor binding to an effector or to inhibit enzyme catalysis. In this case, an amount of the selected nucleic acid molecule which is effective for target protein inhibition is combined with the target protein to achieve the desired inhibition.
  • a method comprising the specific binding in vitro of a nucleic acid ligand to a target molecule other than binding between nucleic acids; wherein when the target molecule is a protein it is a protein that does not bind nucleic acids as part of its biological function, and wherein the nucleic acid ligand has been identified by a process which comprises the steps of:
  • nucleic acid ligand in the manufacture of a therapeutic or diagnostic agent for a therapeutic or diagnostic procedure involving the specific binding in vivo of the ligand to a target molecule other than binding between nucleic acids; wherein when the target molecule is a protein it is a protein that does not bind nucleic acids as part of its biological function, and wherein the nucleic acid ligand has been identified by a process which comprises the steps of:
  • Nucleic acid means either DNA, RNA, single-stranded or double-stranded and any chemical modifications thereof, provided only that the modification does not interfere with amplification of selected nucleic acids.
  • modifications include, but are not limited to, modifications at cytosine exocyclic amines, substitution of 5-bromo-uracil, backbone modifications, methylations, unusual base-pairing combinations and the like.
  • Ligand means a nucleic acid that binds another molecule (target).
  • a ligand In a population of candidate nucleic acids, a ligand is one which binds with greater affinity than that of the bulk population. In a candidate mixture there can exist more than one ligand for a given target. The ligands can differ from one another in their binding affinities for the target molecule.
  • Candidate mixture is a mixture of nucleic acids of differing sequence, from which to select a desired ligand.
  • the source of a candidate mixture can be from naturally-occurring nucleic acids or fragments thereof, chemically synthesized nucleic acids, enzymically synthesized nucleic acids or nucleic acids made by a combination of the foregoing techniques.
  • Target molecule means any compound of interest for which a ligand is desired.
  • a target molecule can be a protein, peptide, carbohydrate, polysaccharide, glycoprotein, hormone, receptor, antigen, antibody, virus, substrate, metabolite, transition state analog, cofactor, inhibitor, drug, dye, nutrient, growth factor, etc., without limitation.
  • Partitioning means any process whereby ligands bound to target molecules, termed ligand-target pairs herein, can be separated from nucleic acids not bound to target molecules. Partitioning can be accomplished by various methods known in the art. Nucleic acidprotein pairs can be bound to nitrocellulose filters while unbound nucleic acids are not. Columns which specifically retain ligand-target pairs (or specifically retain bound ligand complexed to an attached target) can be used for partitioning. Liquid-liquid partition can also be used as well as filtration gel retardation, and density gradient centrifugation. The choice of partitioning method will depend on properties of the target and of the ligand-target pairs and can be made according to principles and properties known to those of ordinary skill in the art.
  • Amplifying means any process or combination of process steps that increases the amount or number of copies of a molecule or class of molecules.
  • Amplifying RNA molecules in the disclosed examples was carried out by a sequence of three reactions: making cDNA copies of selected RNAs, using polymerase chain reaction to increase the copy number of each cDNA, and transcribing the cDNA copies to obtain RNA molecules having the same sequences as the selected RNAs. Any reaction or combination of reactions known in the art can be used as appropriate, including direct DNA replication, direct RNA amplification and the like, as will be recognized by those skilled in the art.
  • the amplification method should result in the proportions of the amplified mixture being essentially representative of the proportions of different sequences in the initial mixture.
  • Specific binding is a term which is defined on a case-by-case basis.
  • a binding interaction of ligand and target of higher affinity than that measured between the target and the candidate ligand mixture is observed.
  • the conditions of both binding reactions must be the same, and should be comparable to the conditions of the intended use. For the most accurate comparisons, measurements will be made that reflect the interaction between ligand as a whole and target as a whole.
  • nucleic acid ligands of the invention can be selected to be as specific as required, either by establishing selection conditions that demand the requisite specificity during SELEX, or by tailoring and modifying the ligand through "walking" and other modifications using interactions of SELEX.
  • Randomized is a term used to described a segment of a nucleic acid having, in principle any possible sequence over a given length. Randomized sequences will be of various lengths, as desired, ranging from about eight to more than 100 nucleotides. The chemical or enzymatic reactions by which random sequence segments are made may not yield mathematically random sequences due unknown biases or nucleotide preferences that may exist.
  • the term "randomized” is used instead of "random" to reflect the possibility of such deviations from non-ideality. In the techniques presently known, for example sequential chemical synthesis, large deviations are not known to occur. For short segments of 20 nucleotides or less, any minor bias that might exist would have negligible consequences. The longer the sequences of a single synthesis, the greater the effect of any bias.
  • a bias may be deliberately introduced into randomized sequence, for example, by altering the molar ratios of precursor nucleoside (or deoxynucleoside) triphosphates of the synthesis reaction.
  • a deliberate bias may be desired, for example, to approximate the proportions of individual bases in a given organism, or to affect secondary structure.
  • SELEXION refers to a mathematical analysis and computer simulation used to demonstrate the powerful ability of SELEX to identify nucleic acid ligands and to predict which variations in the SELEX process have the greatest impact on the optimization of the process.
  • SELEXION is an acronym for Systematic Evolution of Ligands by EXponential enrichment with Integrated Optimization by Nonlinear analysis.
  • Nucleic acid antibodies is a term used to refer to a class of nucleic acid ligands that are comprised of discrete nucleic acid structures or motifs that selectively bind to target molecules.
  • Nucleic acid antibodies may be made up of double or single Stranded RNA or DNA. The nucleic acid antibodies are synthesized, and in a preferred embodiment are constructed based on a ligand solution or solutions received for a given target by the SELEX process. In many cases, the nucleic acid antibodies of the present invention are not naturally occurring in nature, while in other situations they may have significant similarity to a naturally occurring nucleic acid sequence.
  • the nucleic acid antibodies of the present invention include all nucleic acids having a specific binding affinity for a target, while not including the cases when the target is a polynucleotide which binds to the nucleic acid through a mechanism which predominantly depends on Watson/Crick base pairing or triple helix agents ( See , Riordan, M. et al. (1991) Nature 350:442-443); provided, however, that when the nucleic acid antibody is double-stranded DNA, the target is not a naturally occuring protein whose physiological function depends on specific binding to double-stranded DNA.
  • RNA motifs is a term generally used to describe the secondary or tertiary structure of RNA molecules.
  • the primary sequence of an RNA is a specific string of nucleotides (A, C, G or U) in one dimension.
  • the primary sequence does not give information on first impression as to the three dimensional configuration of the RNA, although it is the primary sequence that dictates the three dimensional configuration.
  • the ligand solution obtained after performing SELEX on a given target may best be represented as a primary sequence. Although conformational information pertaining to such a ligand solution is not always ascertainable based on the results obtained by SELEX, the representation of a ligand solution as a primary sequence shall not be interpreted as disclaiming the existence of an integral tertiary structure.
  • RNA motif The secondary structure of an RNA motif is represented by contact in two dimensions between specific nucleotides.
  • the most easily recognized secondary structure motifs are comprised of the Watson/Crick basepairs A:U and C:G.
  • Non-watson/Crick basepairs often of lower stability, have been recognized, and include the pairs G:U, A:C, G:A,and U:U.
  • RNA motif The three dimensional structure of an RNA motif is merely the description, in space, of the atoms of the RNA motif.
  • Double-stranded RNA fully base paired through Watson/Crick pairing, has a regular structure in three dimensions, although the exact positions of all the atoms of the helical backbone could depend on the exact sequence of bases in the RNA.
  • a vast literature is concerned with secondary structures of RNA motifs, and those secondary structures containing Watson/Crick base pairs are thought often to form A-form double stranded helices.
  • Non-Watson/Crick base pairs, hairpin loops, bulges, and pseudoknots are structures built within and upon helices. The construction of these additional motifs is described more fully in the text.
  • RNA The actual structure of an RNA includes all the atoms of the nucleotide of the molecule in three dimensions.
  • a fully solved structure would include as well bound water and inorganic atoms, although such resolution is rarely achieved by a researcher.
  • Solved RNA structures in three dimensions will include all the secondary structure elements (represented as three dimensional structures) and fixed positions for the atoms of nucleotides not restrained by secondary structure elements; due to base stacking and other forces extensive single stranded domains may have fixed structures.
  • RNAs Primary sequences of RNAs limit the possible three dimensional structures, as do the fixed secondary structures.
  • the three dimensional structures of an RNA are limited by the specified contacts between atoms in two dimensions, and are then further limited by energy minimizations, the capacity of a molecule to rotate all freely rotatable bonds such that the resultant molecule is more stable than other conformers having the same primary and secondary sequence and structure.
  • RNA molecules have structures in three dimensions that are comprised of a collection of RNA motifs, including any number of the motifs shown in Figure 13.
  • RNA motifs include all the ways in which it is possible to describe in general terms the most stable groups of conformations that a nucleic acid compound can form.
  • the ligand solution and the nucleic acid antibody may be one of the RNA motifs described herein or some combination of several RNA motifs.
  • Ligand solutions are defined as the three dimensional structure held in common or as a family that define the conserved components identified through SELEX.
  • the ligands identified for a particular target may contain a primary sequence in common (NNNCGNAANUCGN'N'N) which can be represented by a hairpin in two dimensions by:
  • ligand solutions are meant to represent a potentially large collection of appropriate sequence/structures, each identified by the family description which is inclusive of all exact sequence/structure solutions. It is further contemplated through this definition that ligand solutions need not include only members with exact numerical equivalency between the various components of an RNA motif. Some ligands may have loops, for example, of five nucleotides while other ligands for the same target may contain fewer or more nucleotides in the equivalent loop and yet be included in the description of the ligand solution.
  • the ligand solution derived by SELEX may include a relatively large number of potential members, the ligand solutions are target specific and, for the most part, each member of the ligand solution family can be used as a nucleic acid antibody to the target.
  • the selection of a specific member from a family of ligand solutions to be employed as a nucleic acid antibody can be made as described in the text and may be influenced by a number of practical considerations that would be obvious to one of ordinary skill in the art.
  • the method of the present invention developed in connection with investigations of translational regulation in bacteriophage T4 infection.
  • Autoregulation of the synthesis of certain viral proteins, such as the bacteriophage T4 DNA polymerase (gp 43) involves binding of the protein to its own message, blocking its translation.
  • the SELEX method was used to elucidate the sequence and structure requirements of the gp43 RNA binding site. SELEX allowed the rapid selection of preferred binding sequences from a population of random nucleic acid sequences. While exemplified by the isolation and identification of nucleic acid sequences which bind to proteins known to bind to RNA, the method of the present invention is generally applicable to the selection of a nucleic acid capable of binding any given protein.
  • the method is applicable to selection of nucleic acids which bind to proteins which do not (or are not known to) bind to nucleic acid as a part of their natural activity or biological function.
  • the SELEX method requires no knowledge of the structure or sequence of a binding site and no knowledge of the structure or sequence of the target protein. The method does not depend on purified target protein for selections. In general, application of SELEX will enrich for ligands of the most abundant target. In a mixture of ligands, techniques for isolating the ligand of a given target are available. For example, another ligand (e.g., substrate, inhibitor, antibody) of the desired target can be used to compete specifically for binding the target, so that the desired nucleic acid ligand can be partitioned from ligands of other targets.
  • another ligand e.g., substrate, inhibitor, antibody
  • ligands derived by SELEX are comprised of single stranded RNA sequences. It is a critical element of this invention that the present inventors were able to make conclusions about RNA that are contrary to those commonly held in the field, and to use these conclusions to tailor the SELEX process to achieve nucleic acid antibodies derived from ligand solutions.
  • RNA was first appreciated as an information messenger between the DNA sequences that are the genes and the protein sequences that are found within enzymes and other proteins. From the first moments after Watson and Crick described the structure of DNA and the connection between DNA sequence and protein sequence, the means by which proteins were synthesized became central to much experimental biochemistry. Eventually messenger RNA (mRNA) was identified as the chemical intermediate between genes and proteins. A majority of RNA species present in organisms are mRNAs, and thus RNA continues to be seen largely as an informational molecule. RNA serves its role as an informational molecule largely through the primary sequence of nucleotides, in the same way that DNA serves its function as the material of genes through the primary sequence of nucleotides: that is, information in nucleic acids can be represented in one dimension.
  • mRNA messenger RNA
  • Ribosomes were discovered to be the entities upon which mRNAs are translated into proteins, and ribosomes were discovered to contain essential RNA (ribosomal RNAs, or rRNAs). rRNAs for many years were considered to be structural, a sort of scaffold upon which the protein components of the ribosome were "hung" so as to allow the protein components of the ribosome to perform the protein synthetic action of the ribosome.
  • tRNAs transfer RNAs
  • tRNAs are the chemically bifunctional adapters that recognize codons within mRNA and carry the amino acids that are condensed into protein.
  • RNAs were considered to be primarily "strings" in one dimension for an additional decade.
  • rRNA occupied a strange position in the research community.
  • RNA might once have served an enzymatic rather than informational role, but these postulates were never intended to be predictive about present functions of RNA.
  • RNA molecules remain underestimated by the research community, with respect to binding and other capacities. While ribozymes have caused a remarkable increase in research aimed at RNA functions, the present application contemplates that the shape possibilities for RNA molecules (and probably DNA as well) afford an opportunity to use SELEX to find RNAs with virtually any binding function. It is further contemplated that the range of catalytic functions possible for RNA is broad beyond the present conventional wisdom, although not necessarily as broad as that of proteins.
  • RNAs The three dimensional shapes of some RNAs are known directly from either X-ray diffraction or NMR methodologies.
  • the existing data set is sparse.
  • the structures of four tRNAs have been solved, as well as three smaller RNA molecules: two small nairpins and a small pseudoknot.
  • the various tRNAs, while related, have elements of unique structure: for example, the anticodon bases of the elongator tRNAs are displayed toward the solvent, while the anticodon bases of an initiator tRNA are pointed more away from the solvent.
  • RNA structures A key concept in this description of RNA structures is that every sequence will find its most stable structure, even though RNAs are often drawn so as to suggest a random coil or floppy, unstructured element. Homopolymers of RNA, unable to form Watson/Crick base pairs, are often found to have a nonrandom structure attributed to stacking energy gained by fixing the positions of adjacent bases over each other. Clearly sequences involving all four nucleotides may have local regions of fixed structure, and even without Watson/Crick base pairs a non-uniform sequence may have more structure than is at first presumed. The case for fixed structures in RNA loops is even stronger. The anticodon loops of tRNAs have a structure, and so do--presumably--the two winning sequences that bind best to T4 DNA polymerase.
  • Antiparallel strands of complementary sequence in RNA yield A-form helices, from which loop sequences emerge and return. Even if the loop sequences do not have a strong capacity to interact, energy minimization is an energetically free structure optimization (that is, no obvious energies of activation block energy minimization of a loop sequence).
  • a kinetically likely starting point for optimization may be the loop closing base pair of an RNA stem, which presents a flat surface upon which optimal stacking of loop nucleotides and bases may occur.
  • Loops of RNA are in principle equivalent to loops of protein connecting antiparallel alpha-helices or beta-strands. Although these protein loops are often called random coils, they are neither random nor coiled.
  • Such loops are called “omega” structures, reflecting that the loop emerges and returns to positions that are relatively close to each other ( See , Leszczynski, J. and Rose, G. et al . (1986) Science 234 :849-855); those positions in a protein are conceptually equivalent to the loop closing base pair of an RNA hairpin.
  • Single stranded regions of both RNAs and protein may be held so as to extend the possible structure. That is, if a single stranded loop emerges and returns in a protein structure from parallel strands of alpha-helix or beta-strands, the points of emergence and return are further from each other than in the omega structures. Furthermore, the distance spanned by the single strand of peptide can be varied by the lengths of parallel alpha-helix or beta-strand.
  • the resultant energy minimization could, in principle, allow interactions between the single stranded domain and the underlying structure. It is likely that amino acid side chains that can form salt bridges in secondary structures could do the same in extended single strands lying on top of regular secondary structures. Thus the exact structures of such protein regions will again be idiosyncratic, and very much sequence dependent. In this case the sequence dependence will include both the single strand and the underlying sequence of the secondary structure.
  • RNA structure known as a pseudoknot is analogous to these extended protein motifs, and may serve to display toward solvent or target molecules extended single strands of RNA whose bases are idiosyncratically arrayed toward either the solvent/target or an underlying RNA secondary structure.
  • Pseudoknots have, in common with protein motifs based on loops between parallel strands, the capacity to alter the length of single strand and the sequence of the helix upon which it lies.
  • RNA helices may contain irregularities, called bulges. Bulges can exist in one strand of a helix or both, and will provide idiosyncratic structural features useful for target recognition. Additionally, helix irregularities can provide angled connections between regular helices.
  • a large bulge (see Figure 13) on one strand of RNA may be comparable to hairpin loops, except that the loop closing base pair is replaced by the two base pairs flanking the bulge.
  • Asymmetric bulges may provide an elongated and irregular structure that is stabilized by nucleotide contacts across the bulge. These contacts may involve Watson/Crick interactions or any other stabilizing arrangement, including other hydrogen bonds and base stacking.
  • the standard reasoning includes the existence of 20 amino acids versus only four nucleotides, the strong ionic qualities of lysine, arginine, aspartic acid, and glutamic acid which have no counterpart in the RNA bases, the relative neutrality of the peptide backbone when compared to the strongly negative sugar-phosphate backbone of nucleic acids, the existence of histidine with a pK near neutrality, the fact that the side chains of the amino acids point toward the solvent in both alpha helices and beta strands, and the regular secondary structures of proteins.
  • base pairs point the bases toward each other and utilize much of the chemical information present at the one dimensional level.
  • proteins are thought to be the vastly superior chemical to nucleic acids, including RNA.
  • proteins were chosen for recognition and catalysis over RNA, thus supporting the present widely held view.
  • RNA is as versatile as the immune system. That is, while the immune system provides a fit to any desired target, RNA provides those same opportunities.
  • RNA can be used that is intrinsically more chemically varied than natural RNAs.
  • the SELEX method involves the combination of a selection of nucleic acid ligands which bind to a target molecule, for example a protein, with amplification of those selected nucleic acids. Iterative cycling of the selection/amplification steps allows selection of one or a small number of nucleic acids which bind most strongly to the target from a pool which contains a very large number of nucleic acids.
  • Cycling of the selection/amplification procedure is continued until a selected goal is achieved. For example, cycling can be continued until a desired level of binding of the nucleic acids in the test mixture is achieved or until a minimum number of nucleic acid components of the mixture is obtained (in the ultimate case until a single species remains in the test mixture). In many case, it will be desired to continue cycling until no further improvement of binding is achieved. It may be the case that certain test mixtures of nucleic acids show limited improvement in binding over background levels during cycling of the selection/amplification. In such cases, the sequence variation in the test mixture should be increased including more of the possible sequence variants or the length of the sequence randomized region should be increased until improvements in binding are achieved. Anchoring protocols and/or walking techniques can be employed as well.
  • the method requires the initial preparation of a test mixture of candidate nucleic acids.
  • the individual test nucleic acids can contain a randomized region flanked by sequences conserved in all nucleic acids in the mixture.
  • the conserved regions are provided to facilitate amplification or selected nucleic acids. Since there are many such sequences known in the art, the choice of sequence is one which those of ordinary skill in the art can make, having in mind the desired method of amplification.
  • the randomized region can have a fully or partially randomized sequence. Alternatively, this portion of the nucleic acid can contain subportions that are randomized, along with subportions which are held constant in all nucleic acid species in the mixture.
  • sequence regions known to bind, or selected for binding, to the target protein can be integrated with randomized regions to achieve improved binding or improved specificity of binding.
  • Sequence variability in the test mixture can also be introduced or augmented by generating mutations in the nucleic acids in the test mixture during the selection/amplification process.
  • the nucleic acids employed in the test mixture can be any length as long as they can be amplified.
  • the method of the present invention is most practically employed for selection from a large number of sequence variants.
  • the present method will preferably be employed to assess binding of nucleic acid sequences ranging in length from about four bases to any attainable size.
  • the randomized portion of the nucleic acids in the test mixture can be derived in a number of ways. For example, full or partial sequence randomization can be readily achieved by direct chemical synthesis of the nucleic acid (or portions thereof) or by synthesis of a template from which the nucleic acid (or portions thereof) can be prepared by use of appropriate enzymes. End addition, catalyzed by terminal transferase in the presence of nonlimiting concentrations of all four nucleotide triphosphates can add a randomized sequence to a segment. Sequence variability in the test nucleic acids can also be achieved by employing size-selected fragments of partially digested (or otherwise cleaved) preparations of large, natural nucleic acids, such as genomic DNA preparations or cellular RNA preparations.
  • test mixture contains all possible variant sequences. It will generally be preferred that the test mixture contain as large a number of possible sequence variants as is practical for selection, to insure that a maximum number of potential binding sequences are identified.
  • a randomized sequence of 30 nucleotides will contain a calculated 10 18 different candidate sequences. As a practical matter, it is convenient to sample only about 10 18 candidates in a single selection. Practical considerations include the number of templates on the DNA synthesis column, and the solubility of RNA and the target in solution.
  • candidate mixtures that have randomized segments longer than 30 contain too many possible sequences for all to be conveniently sampled in one selection. It is not necessary to sample all possible sequences of a candidate mixture to select a nucleic acid ligand of the invention. It is basic to the method that the nucleic acids of the test mixture are capable of being amplified. Thus, it is preferred that any conserved regions employed in the test nucleic acids do not contain sequences which interfere with amplification.
  • RNA motifs described above can almost always be defined by a polynucleotide containing about 30 nucleotides. Because of the physical constraints of the SELEX process, a randomized mixture containing about 30 nucleotides is also about the longest contiguous randomized segment which can be utilized while being able to test substantially all of the potential variants. It is, therefore, a preferred embodiment of this invention when utilizing a candidate mixture with a contiguous randomized region, to use a randomized sequence of at least 15 nucleotides and containing at least about 10 9 nucleic acids, and in the most preferred embodiment contains at least 25 nucleotides.
  • This invention includes candidate mixtures containing all possible variations of a contiguous randomized segment of at least 15 nucleotides.
  • Each individual member in the candidate mixture may also be comprised of fixed sequences flanking the randomized segment that aid in the amplification of the selected nucleic acid sequences.
  • Candidate mixtures may also be prepared containing both randomized sequences and fixed sequences wherein the fixed sequences serve a function in addition to the amplification process.
  • the fixed sequences in a candidate mixture may be selected in order to enhance the percentage of nucleic acids in the candidate mixture possessing a given nucleic acid motif or tertiary structure.
  • the incorporation of the appropriate fixed nucleotides will make it possible to increase the percentage of pseudoknots or hairpin loops in a candidate mixture.
  • a candidate mixture that has been prepared including fixed sequences that enhance the percentage of a given nucleic acid structural motif is, therefore, a part of this invention.
  • Candidate mixtures containing various fixed sequences or using a purposefully partially randomized sequence may also be employed after a ligand solution or partial ligand solution has been obtained by SELEX. A new SELEX process may then be initiated with a candidate mixture informed by the ligand solution.
  • PCR Polymerase chain reaction
  • PCR amplification involves repeated cycles of replication of a desired single-stranded DNA (or cDNA copy of an.RNA) employing specific oligonucleotide primers complementary to the 3' and 5' ends of the ssDNA, primer extension with a DNA polymerase, and DNA denaturation. Products generated by extension from one primer serve as templates for extension from the other primer.
  • a related amplification method described in PCT published application WO 89/01050 (Burg et al.) requires the presence or introduction of a promoter sequence upstream of the sequence to be amplified, to give a double-stranded intermediate. Multiple RNA copies of the double-stranded promoter containing intermediate are then produced using RNA polymerase.
  • RNA copies are treated with reverse transcriptase to produce additional double-stranded promoter containing intermediates which can then be subject to another round of amplification with RNA polymerase.
  • Alternative methods of amplification include among others cloning of selected DNAs or cDNA copies of selected RNAs into an appropriate vector and introduction of that vector into a host organism where the vector and the cloned DNAs are replicated and thus amplified (Guatelli, J.C. et al. (1990) Proc. Natl. Acad. Sci. 87 :1874).
  • any means that will allow faithful, efficient amplification of selected nucleic acid sequences can be employed in the method of the present invention. It is only necessary that the proportionate representation of sequences after amplification at least roughly reflects the relative proportions of sequences in the mixture before amplification.
  • RNA molecules and target molecules in the test mixture were designed to provide, after amplification and PCR, essential T7 promoter sequences in their 5' portions.
  • Full-length cDNA copies of selected RNA molecules were made using reverse transcriptase primed with an ologimer complementary to the 3' sequences of the selected RNAs.
  • the resultant cDNAS were amplified by Taq DNA polymerase chain extension, providing the T7 promoter sequences in the selected DNAs. Double-stranded products of this amplification proces were then transcribed in vitro. Transcripts were used in the next selection/amplification cycle.
  • the method can optionally include appropriate nucleic acid purification steps.
  • any protocol which will allow selection of nucleic acids based on their ability to bind specifically to another molecule i.e., a protein or in the most general case any target molecule
  • the selection partition nucleic acids which are capable of being amplified.
  • a filter binding selection as described in Example 1, in which a test nucleic acid mixture is incubated with target protein, the nucleic acid/protein mixture is then filtered through a nitrocellulose filter and washed with appropriate buffer to remove free nucleic acids. Protein/nucleic acid often remain bound to the filter.
  • the relative concentrations of protein to test nucleic acid in the incubated mixture influences the strength of binding that is selected for.
  • nucleic acid When nucleic acid is in excess, competition for available binding sites occurs and those nucleic acids which bind most strongly are selected. Conversely, when an excess of protein is employed, it is expected that any nucleic acid that binds to the protein will be selected.
  • concentrations of protein to nucleic acid employed to achieve the desired selection will depend on the type of protein, the strength of the binding interaction and the level of any background binding that is present. The relative concentrations needed to achieve the desired selection result can be readily determined empirically without under experimentation. Similarly, it may be necessary to optimize the filter washing procedure to minimize background binding. Again such optimization of the filter washing procedures is within the skill of the ordinary artisan.
  • SELEXION A mathematical evaluation of SELEX referred to as SELEXION has been utilized by the inventors of the present invention. Appendix A to this application includes a brief review of the mathematical analysis utilized to obtain generalizations regarding SELEX derived from SELEXION.
  • the generalizations obtained from SELEXION are as follows: 1) The likelihood of recovering the best-binding RNA in each round of SELEX increases with the number of such molecules present, with their binding advantage versus the bulk RNA pool, and with the total amount of protein used. Although it is not always intuitively obvious to know in advance how to maximize the difference in binding, the likelihood of recovering the best-binding RNA still can be increased by maximizing the number of RNA molecules and target molecules sampled: 2) the ideal nucleic acid and protein concentrations to be used in various rounds of SELEX are dependent on several factors. The experimental parameters suggested by SELEXION parallel those employed in the Examples hereto.
  • the protein and nucleic acid candidate mixture concentrations are selected to provide a binding between about 3 and 7 percent of the total of nucleic acids to the protein target.
  • the experimental conditions used to select nucleic acid ligands to various targets in the preferred embodiment are to be selected to mimic the environment that the target would be found in vivo.
  • Example 10 indicates how changing the selection conditions will effect the ligand solution received to a particular target.
  • Adjustable conditions that may be altered to more accurately reflect the in vivo environment of the target include, but are not limited to, the total ionic strength, the concentration of bivalent cations and the pH of the solution.
  • One skilled in the art would be able to easily select the appropriate separation conditions based on a knowledge of the given target.
  • selected nucleic acids In order to proceed to the amplification step, selected nucleic acids must be released from the target after partitioning. This process must be done without chemical degradation of the selected nucleic acids and must result in amplifiable nucleic acids.
  • selected RNA molecules were eluted from nitrocellulose filters using a freshly made solution containing 200 ⁇ l of a 7 M urea, 20 mM sodium citrate (pH 5.0), 1 mM EDTA solution combined with 500 ⁇ l of phenol (equilibrated with 0.1 M sodium acetate pH 5.2). A solution of 200 ⁇ l 7M urea with 500 ⁇ l of phenol has been successfully employed.
  • RNA was then extracted with ether, ethanol precipitated and the precipitate was resuspended in water.
  • buffer conditions for elution of selected RNA from the filters can be used.
  • nondetergent aqueous protein denaturing agents such as quanidinium chloride, quanidinium thiocyanate, etc., as are known in the art, can be used.
  • the specific solution used for elution of nucleic acids from the filter can be routinely selected by one of ordinary skill in the art.
  • binding and partitioning can be achieved by passage of the test nucleic acid mixture through a column which contains the target molecule bound to a solid support material. Those nucleic acid that bind to the target will be retained on the column and unbound nucleic acids can be washed from the column.
  • the SELEX process has been defined as an iterative process wherein selection and amplification are repeated until a desired selectivity has been attained.
  • the selection process may be efficient enough to provide a ligand solution after only one separation step.
  • a column supporting the target through which the candidate mixture is introduced--under the proper conditions and with a long enough column-- should be capable of separating nucleic acids based on affinity to the target sufficiently to obtain a ligand solution.
  • the original selection step is sufficiently selective to yield a ligand solution after only one step, such a process would also be included within the scope of this invention.
  • SELEX is iteratively performed until a single or a discrete small number of nucleic acid ligands remain in the candidate mixture following amplification.
  • the ligand solution will be represented as a single nucleic acid sequence, and will not include a family of sequences having comparable binding affinities to the target.
  • SELEX iterations are terminated at some point when the candidate mixture has been enriched in higher binding affinity nucleic acid ligands, but still contains a relatively large number of distinct sequences. This point can be determined by one of skill in the art by periodically analyzing the sequence randomness of the bulk candidate mixture, or by assaying bulk affinity to the target.
  • a ligand solution that is represented as a family of sequences having a number of defining characteristics (e.g., where the ligand solution is AAGUNNGUNNCNNNN, where N can apparently be any of the four nucleotides) may be used to initiate an additional SELEX process.
  • the candidate mixture would be comprised of partially fixed and partially random nucleotides, the fixed nucleotides being selected based on the ligand solution received in the initial SELEX process. In this manner, if there is a single nucleotide sequence that binds better than the other members of the ligand solution family, it will be quickly identified.
  • a second SELEX experiment based on the ligand solution received in a SELEX process is also utilized.
  • the single most predominant sequence e.g., AAGUCCGUAACACAC
  • the candidate mixture is prepared in order to yield sequences based on the selected winner, while assuring that there will be sufficient randomization at each of the sequences.
  • This candidate mixture may be produced by using nucleotide starting materlais that are biased rather than randomized.
  • the A solution contains 75% A and 25% U, C and G.
  • the nucleic acid synthesizer is set to yield the predominant nucleotide, the presence of the other nucleotides in the A solution will yield nucleic acid sequences that are predominant in A but that will also yield variations in this position.
  • this second SELEX round informed by the results obtained in the initial SELEX process, will maximize the probabilities of obtaining the best ligand solution to a given target.
  • the ligand solution may consist of a single preferred nucleic acid ligand, or it may consist of a family of structurally related sequences with essentially similar binding affinities.
  • the SELEX process may occasionally be preferred that the SELEX process not be performed until a single sequence is obtained.
  • the SELEX process contains several bias points that may affect the predominance of certain sequences in a candidate mixture after several rounds of SELEX that are not related to the binding affinity of that sequence to the target. For example, a bias for or against certain sequences may occur during the production of cDNA from the RNA recovered after selection, or during the amplification process. The effects of such unpredictable biases can be minimized by halting SELEX prior to the time that only one or a small number of sequences predominate in the reaction mixture.
  • sequence variation in the test nucleic acid mixture can be achieved or increased by mutation.
  • a procedure has been described for efficiently mutagenizing nucleic acid sequences during PCR amplification (Leung et al. 1989). This method or functionally equivalent methods can optionally be combined with amplification procedures in the present invention.
  • mutagenesis procedures include, among others, chemically induced mutagenesis and oligonucleotide site-directed mutagenesis.
  • the present invention can also be extended to utilize additional interesting capacities of nucleic acids and the manner in which they are known or will later be found to interact with targets such as proteins.
  • a SELEX methodology may be employed to screen for ligands that form Michael adducts with proteins.
  • Pyrimidines when they sit in the correct place within a protein, usually adjacent to a critical cysteine or other nucleophile, can react with that nucleophile to form a Michael adduct.
  • the mechanism by which Michael adducts are formed involves a nucleophilic attack at the 6 position of the pyrimidine base to create a transient (but slowly reversing) intermediate that is really a 5,6 dihydropyrimidine.
  • SELEX may be done so as to take advantage of Michael adduct formation in order to create very high affinity, near-suicide substrates for an enzyme or other protein target.
  • the target is denatured.
  • Subsequent partitioning, followed by reversal of the Michael adduct and cDNA synthesis on the released RNA, followed by the rest of the SELEX cycle, will enrich for RNAs that bind to a target prior to denaturation but continue to bind covalently until the Michael adduct is reversed by the scientist.
  • This ligand, in vivo would have the property of permanently inhibiting the target protein.
  • RUMT tRNA-uracil methyl transferase
  • the method of the present invention has multiple applications.
  • the method can be employed, for example, to assist in the identification and characterization of any protein binding site for DNA or RNA.
  • binding sites function in transcriptional or translational regulation of gene expression, for example as binding sites for transcriptional activators or repressors, transcription complexes at promoter sites, replication accessory proteins and DNA polymerases at or near origins of replication and ribosomes and translational repressors at ribosome binding sites. Sequence information of such binding sites can be used to isolate and identify regulatory regions bypassing more labor intensive methods of characterization of such regions. Isolated DNA regulatory regions can be employed, for example, in heterologous constructs to selectively alter gene expression.
  • nucleic acid ligands which have binding functions similar to those of antibodies can be isolated by the methods of the present invention.
  • nucleic acid ligands are designated herein nucleic acid antibodies and are generally useful in applications in which polyclonal or monoclonal antibodies have found application. Nucleic acid antibodies can in general be substituted for antibodies in any in vitro or in vivo application.
  • nucleic acid antibody it is only necessary that under the conditions in which the nucleic acid antibody is employed, the nucleic acid is substantially resistant to degradation.
  • Applications of nucleic acid antibodies include the specific, qualitative or quantitative detection of target molecules from any source; purification of target molecules based on their specific binding to the nucleic acid; and various therapeutic methods which rely on the specific direction of a toxin or other therapeutic agent to a specific target site.
  • Target molecules are preferably proteins, but can also include among others carbohydrates, peptidoglycans and a variety of small molecules.
  • nucleic acid antibodies can be employed to target biological structures, such as cell surfaces or viruses, through specific interaction with a molecule that is an integral part of that biological structure.
  • Nucleic acid antibodies are advantageous in that they are not limited by self tolerance, as are conventional antibodies. Also nucleic acid antibodies do not require animals or cell cultures for synthesis or production, since SELEX is a wholly in vitro process.
  • nucleic acids can bind to complementary nucleic acid sequences. This property of nucleic acids has been extensively utilized for the detection, quantitation and isolation of nucleic acid molecules.
  • the methods of the present invention are not intended to encompass these well-known binding capabilities between nucleic acids.
  • the methods of the present invention related to the use of nucleic acid antibodies are not intended to encompass known binding affinities between nucleic acid molecules.
  • a number of proteins are known to function via binding to nucleic sequences, such as regulatory proteins which bind to nucleic acid operator sequences.
  • the known ability of certain nucleic acid binding proteins to bind to their natural sites, for example, has been employed in the detection, quantitation, isolation and purification of such proteins.
  • the methods of the present invention related to the use of nucleic acid antibodies are not intended to encompass the known binding affinity between nucleic acid binding proteins and nucleic acid sequences to which they are known to bind.
  • nucleic acid binding proteins novel, non-naturally-occurring sequences which bind to the same nucleic acid binding proteins can be developed using SELEX. It should be noted that SELEX allows very rapid determination of nucleic acid sequences that will bind to a protein and, thus, can be readily employed to determine the structure of unknown operator and binding site sequences which sequences can then be employed for applications as described herein. It is believed that the present invention is the first disclosure of the general use of nucleic acid molecules for the detection, quantitation, isolation and purification of proteins which are not known to bind nucleic acids. As will be discussed below, certain nucleic acid antibodies isolatable by SELEX can also be employed to affect the function, for example inhibit, enhance or activate the function, of specific target molecules or structures. Specifically, nucleic acid antibodies can be employed to inhibit, enhance or activate the function of proteins.
  • RNA ligands that have a known capacity to bind nucleic acids (such as DNA polymerases, other replicases, and proteins that recognize sites on RNA but do not engage in further catalytic action) yield, via SELEX, high affinity RNA ligands that bind to the active site of the target protein.
  • SELEX high affinity RNA ligands that bind to the active site of the target protein.
  • the resultant RNA ligand (called 1.1 in Example 2) blocks cDNA synthesis in the presence of a primer DNA, an RNA template, and the four deoxynucleotide triphosphates.
  • RNA structures suggest that nearly every protein will serve as a target for SELEX.
  • the initial experiments against non-nucleic acid binding protein were performed with three proteins not thought to interact with nucleic acids in general or RNA in particular.
  • the three proteins were tissue plasminogen activator (tPA), nerve growth factor (NGF), and the extracellular domain of the growth factor receptor (gfR-Xtra). All of these proteins were tested to see if they would retain mixed randomized RNAs on a nitrocellulose filter.
  • tPA and NGF showed affinity for randomized RNA, with Kd's just below uM.
  • gfR-Xtra did not bind with measurable affinity, suggesting that if an RNA antibody exists for that protein it must bind to a site that has no affinity for most other RNAs.
  • tPA and NGF were taken through the SELEX drill using RNAs with 30 randomized positions. Both tPA and NGF gave ligand solutions in the SELEX drill, suggesting that some site on each protein bound the winning sequences more tightly than that site (or another site) bound other RNAs. The winning sequences are different for the two proteins.
  • Proteins that do not bind RNA to nitrocellulose filters may fail for trivial reasons having nothing to do with the likelihood of raising RNA antibodies.
  • bradykinin fails to bind to nitrocellulose filters, and thus would fail in the above experiment.
  • a bradykinin linked to a solid matrix through the amino terminus of the peptide was prepared, and then found that randomized RNA bound tightly to the matrix (see Example 7).
  • bradykinin and bombesin bind randomized RNAs quite tightly.
  • Any high affinity RNA ligand obtained through SELEX with these peptide targets would, perhaps, be an antagonist of these active peptides, and might be useful therapeutically. It is difficult to imagine an RNA of about 30 nucleotides binding to a very small peptide without rendering that peptide inactive for virtually any activity.
  • proteins not thought to interact with nucleic acids in nature were found to bind a random mixture of nucleic acids to a non-trivial extent. It has further been shown that for such proteins that were found to bind RNA mixtures non-specifically that a ligand solution can be obtained following SELEX. It is, therefore, a potentially valuable screen--prior to the performance of SELEX--to determine if a given target shows any binding to a random mixture of nucleic acids.
  • the methods described herein can be employed to identify, isolate or produce nucleic acid molecules which will bind specifically to a particular target molecule and affect the function of that molecule.
  • the target molecules are again preferably proteins, but can also include, among others, carbohydrates and various small molecules to which specific nucleic acid binding can be achieved.
  • Nucleic acid ligands that bind to small molecules can affect their function by sequestering them or by preventing them from interacting with their natural ligands. For example, the activity of an enzyme can be affected by a nucleic acid ligand that binds the enzyme's substrate.
  • Nucleic acid ligands i.e., nucleic acid antibodies, of small molecules are particularly useful as reagents for diagnostic tests, (or other quantitative assays). For example, the presence of controlled substances, bound metabolites or abnormal quantities of normal metabolites can be detected and measured using nucleic acid ligands of the invention.
  • a nucleic acid ligand having catalytic activity can affect the function of a small molecule by catalyzing a chemical change in the target. The range of possible catalytic activities is at least as broad as that displayed by proteins.
  • the strategy of selecting a ligand for a transition state analog of a desired reaction is one method by which catalytic nucleic acid ligands can be selected.
  • nucleic acid molecules to effect, inhibit or enhance protein function.
  • the binding selection methods of the present invention can be readily combined with secondary selection or screening methods for modifying target molecule function on binding to selected nucleic acids.
  • the large population of variant nucleic acid sequences that can be tested by SELEX enhances the probability that nucleic acid sequences can be found that have a desired binding capability and function to modify target molecule activity.
  • the methods of the present invention are useful for selecting nucleic acid ligands which can selectively affect function of any target protein including proteins which bind nucleic acids as part of their natural biological activity and those which are not known to bind nucleic acid as part of their biological function.
  • nucleic acid ligands which bind to and modify the function of any protein which binds a nucleic acid, either DNA or RNA, either single-stranded or double-stranded; a nucleoside or nucleotide including those having purine or pyrimidine bases or bases derived therefrom, specifically including those having adenine, thymine, guanine, uracil, cytosine and hypoxanthine bases and derivatives, particularly methylated derivatives, thereof; and coenzyme nucleotides including among others nicotinamide nucleotides, flavin-adenine dinucleotides and coenzyme A.
  • the method of the present invention can be employed to identify, isolate or produce nucleic acid molecules which will affect catalytic activity of target enzymes, i.e., inhibit catalysis or modify substrate binding, affect the functionality of protein receptors, i.e., inhibit binding to receptors or modify the specificity of binding to receptors: affect the formation of protein multimers, i.e., disrupt quaternary structure of protein subunits: and modify transport properties of protein, i.e., disrupt transport of small molecules or ions by proteins.
  • the SELEX process is defined herein as the iterative selection and amplification of a candidate mixture of nucleic acid sequences repeated until a ligand solution has been obtained.
  • a further step in the process is the production of nucleic acid antibodies to a given target. Even when the ligand solution derived for a given process is a single sequence, the nucleic acid antibody containing just the ligand solution must be synthesized. For example, a SELEX experiment may give a preferred single ligand solution that consists of only 20 of the 30 randomized nucleotide sequences used in the SELEX candidate mixture.
  • the therapeutically valuable nucleic acid antibody would not, preferably, contain the 10 noncritical nucleotides or the fixed sequences required for the amplification step of SELEX.
  • the nucleic acid antibody may also be constructed based on a ligand solution for a given target that consists of a family of sequences. In such case, routine experimentation will show that a given sequence is preferred due to circumstances unrelated to the relative affinity of the ligand solution to the target. Such considerations would be obvious to one of ordinary skill in the art.
  • the nucleic acid antibody may be comprised of a plurality of target specific ligands, more than one of which may be identical ligands. Preferably it is comprised of at least two distinct target-specific ligands. It may contain a plurality of nucleic acid ligands to the same target. For example, SELEX may identify two discrete ligand solutions. As the two ligand solutions may bind the target at different locations, the nucleic acid antibody may preferably contain both ligand solutions. In another embodiment, the nucleic acid antibody may contain more than one of a single ligand solution. Such multivalent nucleic acid antibodies will have increased binding affinity to the target unavailable to an equivalent nucleic acid antibody having only one ligand.
  • the nucleic acid antibody may also be comprised of a non-nucleic acid element, especially a target-specific ligand.
  • a target-specific ligand may contain other elements, that will 1) add independent affinity for the target to the nucleic acid antibody; 2) dependently enhance the affinity of the nucleic acid ligand to the target; 3) direct or localize the nucleic acid antibody to the proper location in vivo where treatment is desired; or 4) utilize the specifity of the nucleic acid ligand to the target to effect some additional reaction at that location.
  • the methods herein described are useful for obtaining nucleic acids which will inhibit function of a target protein, and are particularly useful for obtaining nucleic acids which inhibit the function of proteins whose function involves binding to nucleic acid, nucleotides, nucleosides and derivatives and analogs thereof.
  • the methods of the present invention can provide nucleic acid inhibitors, for example, of polymerases, reverse transcriptases, and other enzymes in which a nucleic acid, nucleotide or nucleoside is a substrate or co-factor.
  • Secondary selection methods that can be combined with SELEX include among others selections or screens for enzyme inhibition, alteration of substrate binding, loss of functionality, disruption of structure, etc. Those of ordinary skill in the art are able to select among various alternatives those selection or screening methods that are compatible with the methods described herein.
  • RNA molecules in preference to DNA molecules as ligands, while in other cases DNA ligands may be preferred to RNA.
  • the selection methods herein described can also be employed to select nucleic acids which bind specifically to a molecular complex, for example to a substrate/protein or inhibitor/protein complex.
  • nucleic acids that bind specifically to the complex molecules but not the uncompleted molecules there are nucleic acids which will inhibit the formation of the complex.
  • nucleic acids ligands which are selected for specific binding to a substrate/enzyme complex there are nucleic acids which can be readily selected which will inhibit substrate binding to the enzyme and thus inhibit or disrupt catalysis by the enzyme.
  • An embodiment of the present invention which is particularly useful for the identification or isolation of nucleic acids which bind to a particular functional or active site in a protein, or other target molecule, employs a molecule known, or selected, for binding to a desired site within the target protein to direct the selection/amplification process to a subset of nucleic acid ligands that bind at or near the desired site within the target molecule.
  • a nucleic acid sequence known to bind to a desired site in a target molecule is incorporated near the randomized region of all nucleic acids being tested for binding. SELEX is then used (Fig. 9) to select those variants, all of which will contain the known binding sequence, which bind most strongly to the target molecule.
  • a longer binding sequence which is anticipated to either bind more strongly to the target molecule or more specifically to the target can thus be selected.
  • the longer binding sequence can then be introduced near the randomized region of the nucleic acid test mixture and the selection/amplification steps repeated to select an even longer binding sequence. Iteration of these steps (i.e., incorporation of selected sequence into test mixtures followed by selection/amplification for improved or more specific binding) can be repeated until a desired level of binding strength or specificity is achieved.
  • This iterative "walking" procedure allows the selection of nucleic acids highly specific for a particular target molecule or site within a target molecule.
  • Another embodiment of such an iterative "walking" procedure employs an “anchor” molecule which is not necessarily a nucleic acid (see Figs.
  • a molecule which binds to a desired target for example a substrate or inhibitor of a target enzyme, is chemically modified such that it can be covalently linked to an oligonucleotide of known sequence (the "guide oligonucleotide" of Fig. 10).
  • the guide oligonucleotide chemically linked to the "anchor” molecule that binds to the target also binds to the target molecule.
  • the sequence complement of guide oligonucleotide is incorporated near the randomized region of the test nucleic acid mixture. SELEX is then performed to select for those sequences that bind most strongly to the target molecule/anchor complex.
  • the iterative walking procedure can then be employed to select or produce longer and longer nucleic acid molecules with enhanced strength of binding or specifity of binding to the target.
  • the use of the “anchor” procedure is expected to allow more rapid isolation of nucleic acid ligands that bind at or near a desired site within a target molecule.
  • the “anchor” method in combination with iterative "walking" procedures will result in nucleic acids which are highly specific inhibitors of protein function (Fig. 11).
  • nucleic acid sequences are preferentially retained by nitrocellulose and can be selected during the SELEX process. These sequences can be removed from the candidate mixture by incorporating additional steps wherein the preceding SELEX mixture is passed through nitrocellulose to selectively remove those sequences selected solely for that property.
  • screening and selection may be performed whenever the target contains impurities or the selection process introduces biases unrelated to affinity to the target.
  • T4 DNA polymerase also termed gp43.
  • the novel RNA ligand of T4 DNA polymerase is useful as a specific assay reagent for T4 DNA polymerase.
  • the synthesis of T4 DNA polymerase is autogenously regulated. In the absence of functional protein, amber fragments and mutant proteins are overexpressed when compared to the rate of synthesis of wild-type protein in replication-deficient infections (Russel (1973) J. Mol. Biol. 79 :83-94).
  • gp43 In vitro translation of an N-terminal fragment of gp43 is specifically repressed by the addition of purified qp43, and gp43 protects a discrete portion of the mRNA near its ribosome binding site from nuclease attack (Andrake et al. (1988) Proc. Natl. Acad. Sci. USA 85 :7942-7946).
  • the size and sequence of the RNA translational operator to which gp43 binds and the strength of that binding have been established.
  • the minimal size of the gp43 operator is a sequence of about 36 nucleotides, as illustrated in Fig. 1, which is predicted to have a hairpin loop structure as indicated therein.
  • the minimal size of the operator was determined by analysis of binding of end-labeled hydrolysis fragments of the operator to gp43. Analysis of binding of operator mutants in the hairpin and loop sequence indicate that gp43 binding to the operator is sensitive to primary base changes in the helix. Binding to the polymerase was even more reduced by changes which significantly reduce hairpin stability. Operator binding was found to be very sensitive to loop sequence. It was found that replication and operator binding in gp43 are mutually exclusive activities. The addition of micromolar amounts of purified RNAs containing intact operator was found to strongly inhibit in vitro replication by gp43.
  • the wild-type gp43 operator Fig. 1
  • the wild-type gp43 operator was employed as the basis for the design of an initial mixture of RNA molecules containing a randomized sequence region to assess the ability of the selection/amplification process to isolate nucleic acid molecules that bind to a protein.
  • the RNA test mixture was prepared by in vitro transcription from a 110 base single-stranded DNA template.
  • the template was constructed as illustrated in Figure 1 to encode most of the wild-type operator sequence, except for the loop sequence.
  • the eight base loop sequence was replaced by a randomized sequence region which was synthesized to be fully random at each base.
  • the template also contained sequences necessary for efficient amplification: a sequence at its 3' end complementarily to a primer for reverse transcription and amplification in polymerase chain reactions and a sequence in its 5' end required for T7 RNA polymerase transcriptional initiation and sufficient sequence complementary to the cDNA of the in vitro transcript.
  • the DNA template is this a mixture of all loop sequence variants, theoretically containing 65,536 individual species.
  • the dissociation constant for the wild-type loop RNA was found to be about 5 x 10 -9 M.
  • the dissociation constant for the population of loop sequence variants was measured to be about 2.5 x 10 -7 . Randomization of the loop sequence lowered binding affinity 50-fold.
  • RNA containing the loop sequence variants were mixed with purified gp43 and incubated. The mixture was filtered through a nitrocellulose filter. Protein-RNA complexes are retained on the filter and unbound RNA is not. Selected RNA was then eluted from the filters as described in Example 1. Selected RNAs were extended with AMV reverse transcriptase in the presence of 3' primer as described in Gauss et al. (1987) supra . The resulting cDNA was amplified with Taq DNA polymerase in the presence of the 5' primer for 30 cycles as described in Innis et al. (1986) supra.
  • RNA/gp43 10/1 (moles/moles); experiment B employed an RNA/gp43 of 1000/1; and experiment C employed an RNA/gp43 of 100/1.
  • loop sequence variant RNAs isolated by the selection/amplification process shown in Figure 7, can all act as inhibitors of gp43 polymerase activity as has been demonstrated for the wild-type operator sequence.
  • SELEX has been provided by selection of a novel RNA ligand of bacteriophage T4 DNA polymerase (gp43) (Andrake et al. (1988) Proc. Natl. Acad. Sci. USA 85:7942-7946).
  • the present invention includes specific ligand solutions, derived via the SELEX process, that are shown to have an increased affinity to HIV-1 reverse transcriptase, R17 coat protein, HIV-1 rev protein, HSV DNA polymerase, E. coli ribosomal protein S1, tPA and NGF. These ligand solutions can be utilized by one of skill in the art to synthesize nucleic acid antibodies to the various targets.
  • the targets may generally be divided into two categories--those that are nucleic acid binding proteins and those proteins not known to interact with nucleic acids.
  • a ligand solution is obtained.
  • the ligand solution is represented as a nucleic acid motif such as a hairpin loop, an asymmetric bulge or a pseudoknot.
  • the ligand solution is presented as a primary sequence. In such cases it is not meant to be implied that the ligand solution does not contain a definitive tertiary structure.
  • targets on which SELEX has been successfully performed include bacteriophage R17 coat protein, HIV reverse transcriptase (HIV-RT), HIV-1 rev protein, HSV DNA polymerase plus or minus cofactor, E. coli ribosomal protein S1, tPA and NGF.
  • HIV-RT HIV reverse transcriptase
  • HIV-1 rev protein HIV-1 rev protein
  • HSV DNA polymerase plus or minus cofactor E. coli ribosomal protein S1
  • tPA E. coli ribosomal protein S1
  • NGF E. coli ribosomal protein S1
  • Example 7 also describes the immobilization of bradykinin and the results of bulk randomized nucleic acid binding studies on bradykinin.
  • nucleic acids as chemical compounds can form a virtually limitless variety of sizes, shapes and configurations and are capable of an enormous repertoire of binding and catalytic functions, of which those known to exist in biological systems are merely a glimpse.
  • the transcription vector pT7-2 is commercially available (U.S. Biochemical Company, Cleveland, OH). Plasmid pUC18 is described by Norrander et al. (1983) Gene 24 :15-27 and is also commercially available from New England Biolabs. All manipulations of DNA to create new recombinant plasmids were as described in Maniatis et al. (1982) Molecular Cloning: A Laboratory Manual, Cold Spring Harbor Laboratory, Cold Spring Harbor, New York, except as otherwise noted. DNA olignucleotides were synthesized and purified as described in Gauss et al. (1987) Mol. Gen. Genet. 206 :24-34.
  • Dilutions of labeled, gel-purified RNA and purified gp43 were made in 200 mM potassium acetate, 50 mM Tris-HCl pH 7.7 at 4°C.
  • purified gp43 was serially diluted and 30 ⁇ l aliquots of each dilution of protein were added to 30 ⁇ l aliquots of diluted, labeled, gel-purified RNA.
  • the RNA dilution (50 ⁇ l) was spotted on a fresh nitrocellulose filter, dried and counted to determine input counts per tube.
  • the concentration of protein in the reactions ranged from 10 -10 M to 10 -8 M and the concentration of the RNAs in each experiment was approximately 10 -12 M.
  • each tube was placed at 37°C for 3 minutes and 50 ⁇ l of each sample filtered through pre-wet nitrocellulose filters (Millipore #HAWP 025 00) and washed with 3 ml of 200 mM potassium acetate, 50 mM Tris-HCl pH 7.7.
  • the filters were dried and counted in EcolumeTM scintillation fluid (ICN Biomedicals, Inc.). Controls were done in the absence of gp43, from which the background (always less than about 5% of the input counts) was determined. From each set of measurements the background was subtracted, and the percent of total input counts remaining on the filters calculated.
  • a 110 base single-stranded DNA template for in vitro transcription was created as shown in Figure 2 by ligation of three synthetic oligonucleotides (Tables 1, 3, 4 and 5) in the presence of two capping oligonucleotides (Tables 1 and 2).
  • One of the template-creating oligos was also used as the 3' primer in reverse transcription of the in vitro transcript and subsequent amplification in polymerase chain reactions (PCRs) (Innis et al. (1988) Proc. Natl. Acad. Sci. USA 85 :9436-9440).
  • One of the capping oligos (1) contains the information required for T7 RNA polymerase transcriptional initiation and sufficient sequence complementarily to the cDNA of the in vitro transcript to serve as the 5' primer in the PCR amplification steps.
  • the DNA template encoded an RNA which contains the entire RNA recognition site for T4 DNA polymerase except that a completely random sequence was substituted in place of the sequence which would encode the wild-type loop sequence AAUAACUC.
  • the random sequence was introduced by conventional chemical synthesis using a commercial DNA synthesizer (Applied Biosystems) except that all four dNTP's were present in equimolar amounts in the reaction mixture for each position indicated by N in the sequence of oligonucleotide number 4 (Table 1).
  • the random sequence is flanked by primer annealing sequence information for the 5' and 3' oligos used in PCR.
  • the DNA template is thus a mixture of all loop sequence variants, theoretically containing 65,536 individual species.
  • the dissociation constant for the wild-type loop variant RNA sequence is about 5 x 10 -9 M and for the population of sequences was measured to be about 2.5 x 10 -7 M, a 50-fold lower binding affinity.
  • RNA mixture was actually composed of two major loop sequences.
  • the other, AGCAACCU was mutant at four positions and existed in 8 of the 20 clones (see Figure 7).
  • the other three loop sequences detected were single mutations of these two major sequences. Filter binding experiments with labeled in vitro transcripts derived from each of these clonal isolates indicated that there was a rough correlation between binding affinity of an RNA for gp43 and selected abundance (see Figure 7).
  • Example 2 Isolation of a Specific RNA ligand for HIV reverse transcriptase
  • the reverse transcriptase activity of HIV-1 is composed of a heterodimer of two subunits (p51 and p66) that have common amino termini.
  • the extra carboxyterminal region of the larger peptide comprises the RNaseH domain of reverse transcriptase; the structure of that domain has recently been determined at high resolution.
  • Two template populations (with approximately 10 14 different sequences each) were created for use in SELEX by ligation.
  • One template population was randomized over 32 nucleotide positions, using fixed sequences at the ends of the randomized region to afford cDNA synthesis and PCR amplification.
  • the second template population had, as additional fixed sequence at the 5' end of the RNA, the anticodon loop and stem of tRNA Lys3 . (All oligos used in this work are shown in Table 2).
  • There was no difference in the affinity of the two randomized populations for HIV-1 reverse transcriptase [RT] (and, as is shown, the RNAs which were selected did not utilize either 5' region in specific binding).
  • RT reverse transcriptase
  • RNA-protein binding reactions were done in a binding buffer of 200 mM KOAc, 50 mM Tris-HCl pH 7.7, 10 mM dithiothreitol. RNA and protein dilutions were mixed and stored on ice for 30 minutes then transferred to 37°C for 5 minutes.
  • RNA concentration for all nine rounds was approximately 3 x 10 -5 M. HIV-RT was 2 x 10 -8 M in the first selection and 1 x 10 -8 M in selections 2-9.
  • RNA containing the tRNA Lys3 anticodon loop and stem was completed first.
  • Nitrocellulose filter binding assays performed at the ninth round revealed that the RNA population had increased about 100-fold in affinity to HIV-1 RT when compared to the starting canidate mixture, but that the background binding to nitrocellulose filters in the absence of protein had increased from about 2% of input RNA to 15%.
  • Individual sequences were cloned from this population (after filtration through nitrocellulose filters to delete some of the high background of potential sequences selected for retention by filters alone) and are listed in Table 3. Nitrocellulose filter binding assays of selected sequences' affinity for HIV RT are shown in Figure 14.
  • sequences were selected as ligands for HIV-RT, exemplified by the binding curves of ligands 1.1 and 1.3a, and show some sequence homology as illustrated by Tables 4 and 5.
  • Some of the ligand sequences exhibit significant retention on nitrocellulose filters in the absence of protein, exemplified by ligand 1.4 ( Figure 14), and seem to be characterized by a long helix with a loop of purine repeat elements (as shown in Table 4). In spite of our minimal, late efforts to delete them in this experiment prior to cloning, these sequences represented a significant part of those collected from this experiment.
  • experiment 2 (which has a different 5' fixed sequence) was pre-filtered through nitrocellulose before the first, third, sixth and ninth rounds of selection.
  • the sequences collected from this experiment are shown in Table 6.
  • Table 6 There are again many sequences with homology to those of high affinity from experiment 1 as shown in Tables 4 and 5.
  • Nitrocellulose binding assays of selected ligand sequences from this experiment compared to that of ligand 1.1 are shown in Figure 15.
  • Figure 31 shows a schematic diagram of what is referred to herein as a pseudoknot.
  • a pseudoknot is comprised of two helical sections and three loop sections. Not all pseudoknots contain all three loops.
  • the various sections of the pseudoknot have been labeled as shown in Figure 31.
  • Table 5 several of the sequences obtained in experiments one and two are listed according to the pseudoknot configuration assumed by the various sequences.
  • a primary purpose of this experiment was to find ligand solutions to HIV-1 RT.
  • the ability of the evolved ligand clone 1.1 was compared to the ability of the starting population for experiment 1 to inhibit reverse transcriptase activity, and is shown in Figure 17.
  • Even at equal concentrations of inhibitor RNA to RT the reverse transcriptase is significantly inhibited by ligand 1.1.
  • only at 10 mM (or 200-fold excess) starting population RNA is there any significant inhibition of the HIV-1 RT.
  • the high affinity ligand to HIV-1 RT either blocks or directly interacts with the catalytic site of the enzyme.
  • Example 3 Isolation of specific RNA ligand for bacteriophage R17 coat protein .
  • SELEX was performed on the bacteriophage R17 coat protein.
  • the protein was purified as described by Carey et al ., Biochemistry, 22 , 2601 (1983).
  • the binding buffer was 100mM potassium acetate plus 10 mM dithiothreitol plus 50 mM Tris-acetate pH 7.5.
  • Protein and RNA were incubated together for three minutes at 37°C and then filtered on nitrocellulose filters to separate protein-bound RNA from free RNA. The filters were washed with 50 mM Tris-acetate pH 7.5. Protein was at 1.2 x 10 -7 M for the first four rounds of SELEX and at 4 x 10 -8 for rounds five through 11.
  • the starting RNA was transcribed from DNA as described previously.
  • the DNA sequence includes a bacteriophage T7 RNA polymerase promoter sequence that allows RNA to be synthesized according to standard techniques. cDNA synthesis during the amplification portion of the SELEX cycle is primed by a DNA of the sequence:
  • the DNA primers used to amplify the cDNA was, thus, the sequence including the T7 promoter, 32 randomized positions, an AT dinucleotide, and the fixed sequence complementary to PCR primer 1.
  • the RNA that is used to begin the first cycle of SELEX thus has the sequence:
  • a set of clones from after the 11th round ot SELEX was obtained and sequenced. Within the 38 different sequences obtained in the 47 clones were three found more than once: one sequence was found six times, one sequence four times, and another two times. The remaining 35 sequences were found once each. Two sequences were not similar to the others with respect to primary sequences or likely secondary structures, and were not analyzed further. Thirty-six sequences had in common the sequence ANCA situated as a tetranucleotide loop of a bulged hairpin; the bulged nucleotide was an adenine in all 36 cases. The sequences of the entire set are given in Table 8, aligned by the four nucleotides of the hairpin loop.
  • the two nucleotides 3' to the randomized portion of the starting RNA are free to change or be deleted since the cDNA primer does not include the complementary two nucleotides; many clones have changed one or both of those nucleotides.
  • the winning RNA motif shown in Figure 19, bears a direct relationship to the coat binding site identified earlier through site-directed mutagenesis and binding studies. See , Uhlenbeck et al. supra (1983); Ramaniuk et al. supra (1987). However, some of the sequences are more conserved in this set than might have been expected. The loop sequence AUCA predominates, while earlier binding data might have suggested that ANCA sequences are all equivalent.
  • the natural binding site on the R17 genome includes the sequence and structure shown below:
  • the natural structure includes the sequence GGAG, which serves to facilitate ribosome binding and initiation of translation of the R17 replicase coding region.
  • the winning sequences contain around the loop and bulge C:G base pairs more often than G:C base pairs.
  • SELEX, therfore relaxes the constraints of biology and evolutionary history, leading to ligands with higher affinities than the natural ligand.
  • the loop cytidine found in each of the 36 sequences is a uridine in the natural site, and it is known that C provides higher affinity than U.
  • evolution natural sites must have an appropriate affinity rather than the highest affinity, since the tightest binding may lead to disadvantages for the organism.
  • Example 4 Isolation of a nucleic acid ligand for a serine protease.
  • Serine proteases are protein enzymes that cleave peptide bonds within proteins.
  • the serine proteases are members of a gene family in mammals, and are important enzymes in the life of mammals. Serine proteases are not known to bind to nucleic acids. Examples of serine proteases are tissue plasminogen activator, trypsin, elastase, chymotrypsin, thrombin, and plasmin.
  • Many disease states can be treated with nucleic acid ligands that bind to serine proteases, for example, disorders of blood clotting and thrombus formation.
  • Proteases other than serine proteases are also important in mammalian biology, and these too would be targets for nucleic acid ligands with appropriate affinities obtained according to the invention herein taught.
  • htPA Human tissue plasminogen activator
  • Binding during SELEX was in 50 mM NaCl plus 50 mM Tris-acetate pH 7.5 for 3 minutes at 37 degrees. SELEX was carried out for ten rounds. The 30N candidate mixture bound to tPA with an affinity (kd) of 7 x 10(-8) M in 150 mM NaAc plus 50 mM Tris-acetate pH 7.5; the affinity of the RNA present after nine rounds of SELEX was about threefold tighter.
  • kd affinity
  • 9 clones were isolated, sequenced, and some of these were tested for binding to tPA as pure RNAs. The sequences of the nine clones obtained at low salt were as follows:
  • RNA may be filtered through the nitrocellulose filters prior to SELEX to eliminate such motifs.
  • Alternative matrices may be used in alternative rounds of SELEX, e.g., glass fiber filters.
  • Alternative partitioning systems may be used, e.g., columns, sucrose gradients, etc. It is obvious that any given single process will lead to biases in the iterative process that will favor motifs that do not have increased binding to the target, but are selected by the selection process. It is, therefore, important to use alternating processes or screening processes to eliminate these motifs.
  • AGG repeats like other motifs isolated as biases that are target independent, will tend to emerge most frequently when the affinity of the best sequences for the target are rather low or when the affinities of the best sequences are only slightly better than the affinity of the starting candidate mixture for the target.
  • Example 5 Isolation of a nucleic acid ligand for a mammalian receptor
  • Mammalian receptors often are proteins that reside within the cytomplasmic membranes of cells and respond to molecules circulating outside of those cells. Most receptors are not known to bind to nucleic acids.
  • the human growth hormone receptor responds to circulating human growth hormone, while the insulin receptor responds to circulating insulin.
  • Receptors often have a globular portion of the molecule on the extracellular side of the membrane, and said globular portion specifically binds to the hormone (which is the natural ligand). Many disease states can be treated with nucleic acid ligands that bind to receptors.
  • Ligands that bind to a soluble globular domain of the human growth hormone receptor are identified and purified using the candidate mixture of Example 4. Again, the binding buffers are free of DTT.
  • the soluable globular domain of the human growth hormone receptor is available from commercial and academic sources, having usually been created through recombinant DNA technology applied to the entire gene encoding a membrane-bound receptor protein. SELEX is used reiteratively until ligands are found. The ligands are cloned and sequenced, and binding affinities for the soluble receptor are measured.
  • Binding affinities are measured for the same ligand for other soluble receptors in order to ascertain specifity, even though most receptors do not show strong protein homologies with the extracellular domains of other receptors.
  • the ligands are used to measure inhibition of the normal binding activity of shGHR by measuring competitive binding between the nucleic acid ligand and the natural (hormone) ligand.
  • Example 6 Isolation of a nucleic acid ligand for a mammalian hormone or factor
  • Mammalian hormones or factors are proteins, e.g., growth hormone, or small molecules (e.g., epinephrine, thyroid hormone) that circulate within the animal, exerting their effects by combining with receptors that reside within the cytoplasmic membranes of cells.
  • the human growth hormone stimulates cells by first interacting with the human growth hormone receptor, while insulin stimulates cells by fist interacting with the insulin receptor.
  • Many growth factors e.g., granulocyte colony stimulating factor (GCSF), including some that are cell-type specific, first interact with receptors on the target cells.
  • Hormones and factors are natural ligands for some receptors. Hormones and factors are not known, usually, to bind to nucleic acids. Many disease states, for example, hyperthyroidism, chronic hypoglycemia, can be treated with nucleic acid ligands that bind to hormones or factors.
  • Ligands that bind to human insulin are identified purified using the starting material of Example 3.
  • Human insulin is available from commercial sources, having usually been created through recombinant DNA technology. SELEX is used reiteratively until a ligand is found.
  • the ligands are cloned and sequenced, and the binding affinities for human insulin are measured. Binding affinities are measured for the same ligand for other hormones or factors in order to ascertain specificity, even though most hormones and factors do not show strong protein homologies with human insulin. However, some hormone and factor gene families exist, including a small family of IGF, or insulin-like growth factors.
  • the nucleic acid ligands are used to measure inhibition of the normal binding activity of human insulin to its receptor by measuring competitive binding with the insulin receptor and the nucleic acid ligand in the presence or absence of human insulin, the natural ligand.
  • the polypeptide bradykinin is not retained by nitrocellulose.
  • the protein was attached to Activated CH Sepharose 4B (Pharmacia LKB) as a support matrix according to standard procedures.
  • the resulting matrix was determined to be 2.0 mM bradykinin by ninhydrin assay. See Crestfidld et al . J. Siol. Chem . vol. 238, pp. 238, pp. 622-627 (1963) ; Rosen Arch, Biochem. Biophys ., vol. 67, pp. 10-15 (1957).
  • the activated groups remaining on the support matrix were blocked with Tris. See Pharmacia, Affinity Chromatography: Principles and Methods, Ljungforetagen AB, Uppsala, Sweden (1988).
  • the small tube is then transferred to a new larger tube, and the contents washed four times by layering with 50 ⁇ L of the selected wash buffer and spinning.
  • the tube containing the radioactive RNA is transferred to a new Eppendorf tube and spun to dryness.
  • RNA candidate mixture comprised of a 30 nucleic acid randomized segment was applied to the bradykinin sepharose matrix.
  • the binding of the bulk 30N RNA to various matrices was determined under high salt concentrations to determine the best conditions for minimizing background binding to the sepharose. Background binding of RNA to sepharose was minimized by blocking activiated groups on the sepharose with Tris, and using a binding buffer of 10 mM DEM and 10-20 mM KOAc. At this buffer condition, a binding curve of the randomized bulk solution of RNA yielded a bulk Kd of about 1.0 x 10 -5 . See Figure 20. The curve was determined by diluting the bradykinin sepharose against blocked, activated sepharose.
  • Example 8 Preparation of candidate mixtures enhanced in RNA motif structures.
  • the candidate mixture to be used in SELEX is comprised of a contiguous region of between 20 and 50 randomized nucleic acids.
  • the randomized segment is flanked by fixed sequences that enable the amplification of the selected nucleic acids.
  • the candidate mixtures are created to enhance the percentage of nucleic acids in the candidate mixture possessing given nucleic acid motifs.
  • this invention is not so limited. One skilled in the art would be capable of creating equivalent candidate mixtures to achieve the same general result.
  • the candidate mixture is prepared so that most of the nucleic acids in the candidate mixture will be biased to form a helical region of between 4 and 8 base pairs, and a "loop" of either 20 or 21 contiguous randomized sequences. Both 5' and 3' ends of the sequence mixture will contain fixed sequences that are essential for the amplification of the nucleic acids. Adjacent these functional fixed sequences will be fixed sequences chosen to base pair with fixed sequences on the alternate side of the randomized region.
  • a candidate mixture of Figure 21 will be enriched in hairpin loop and symmetric and asymmetric bulged motifs.
  • the candidate mixture would contain equal amounts of sequences where the randomized region is 20 and 21 bases long.
  • a second example, shown in Figure 21 as sequence B, is designed to enrich the candidate mixture in nucleic acids held in the psuedoknot motif.
  • the fixed amplification sequences flank three regions of 12 randomized positions. The three randomized regions are separated by two fixed regions of four nucleotides, the fixed sequences selected to preferably form a four basepair helical structure.
  • the engineered helical regions are designed to yield alternating GC, CG, GC, CG basepairs. This basepair motif has been shown to give a particularly stable helical structure.
  • Example 9 Bulk binding of randomized RNA sequences to proteins not known to bind nucleic acids.
  • RNA sequences were tested to determine if they showed any affinity to a bulk candidate mixture of RNA sequences.
  • the candidate mixture utilized in each experiment consisted of a 40N RNA solution (a randomized mixture having a 40 randomized nucleic acid segment) that was radiolabled to detect the percentage of binding.
  • the candidate mixture was diluted in binding buffer (200 mM KoAc, 50 mM TrisoAc pH 7.7, 10 mM DTT) and 30 ⁇ L was used in a 60 ⁇ L binding reaction. To each reaction was added 20 ⁇ L, 10 ⁇ L or 1 ⁇ L of each protein. Binding buffer was added to reach a total volume of 60 ⁇ L. The reactions were incubated at 37°C for 5 minutes and then subjected to filter binding.
  • the proteins tested were Acetylcholinesterase (MW 230,000); N-acetyl- ⁇ -D-glucosaminidase (MW 180,000): Actin (MW 43,000); Alcohol Dehydrogenase (240,000); Aldehyde Dehydrogenase (MW 200,000); Angiotensin (MW 1297): Ascorbate Oxidase (MW 140,000); Atrial Nutriuretic Factor (MW 3,064); and Bombesin (MW 1621).
  • the proteins were purchased from Boehringer Ingelheim, and were utilized in the buffer composition in which they are sold.
  • RNA candidate mixture used in each experiment contained 10,726 counts of radiolable, and a background binding of about 72 counts was found.
  • the results are summarized in Table 9. All proteins tested except Acetylcholinesterase, N-acetyl- ⁇ -D-glucosaminidase and Actin were found to yield some bulk RNA affinity. Because of the low concentration of N-acetyl- ⁇ -D-glucosaminidase in solution as purchased, the results for that protein are not definitive. In addition, if any of the proteins tested do not bind to nitrocellulose--which is the case for bradykinin--no affinity would be detected in this experiment.
  • Example 7 above discussing column supported bradykinin demonstrates that the failure to show bulk binding in this experiment does not mean that bulk binding does not exist for a given protein.
  • Example 10 Isolation of RNA ligand solution for Nerve Growth Factor.
  • Nerve growth factor is a protein factor that acts through a receptor on the outside surfaces of target cells. Antagonists toward growth factors and other hormones can act by blocking a receptor or by titrating the factor or hormone. An RNA was sought by the SELEX process that binds directly to NGF.
  • the starting RNAs were prepared exactly as in the case of HSV DNA polymerase (Example 11).
  • the low salt experiment yielded 36 cloned sequences. Fifteen of the clones were nearly identical - #'s 2, 3, 4, 5, 6, 8, 11, 13, 19, 22, 28, 33, and 34 were identical, while #'s 15 and 25 had a single difference:
  • nucleic acid hsngf.a A binding assay of nucleic acid hsngf.a to NGF was performed, and this nucleic acid was found to have a Kd of about 20 to 30 fold higher than the bulk 30N candidate mixture. The same nucleic acid was also found to have a lower or equal affinity to R17 coat protein and tPA than a 30N candidate mixture.
  • the SELEX derived nucleic acid ligand hsngf.a is a selective ligand to NGF.
  • Example 11 Isolation of a nucleic acid ligand for HSV-1 DNA Polymerase.
  • Herpes simplex virus is a DNA-containing virus of mammals. HSV-1, like many DNA-containing viruses, encodes its own DNA polymerase. The HSV-1 DNA polymerase has been purified in two forms, which have different qualities but each of which will catalyze DNA replication in vitro.
  • the simple form which is one polypeptide, is purified from cells expressing the cloned gene according to Hernandez, T.R. and Lehman, I.R., J. Biol. Chem., 265, 11227-11232 (1990).
  • the second form of DNA polymerase a heterodimer, is purified from HSV-1 infected cells according to Crute, J.J. and Lehman, I.R., J. Biol. Chem., 264 , 19266-19270 (1989); the heterodimer contains one peptide corresponding to the polymerase itself and another, UL42, also encoded by HSV-1.
  • the binding buffer in each case was 50 mM potassium acetate plus 50 mM Tris acetate, pH 7.5, and 1 mM dithiothreitol. Filtration to separate bound RNA was done after four minutes of incubation at 37 degrees; the filters were washed with binding buffer minus dithiothreitol.
  • RNA candidate mixture was transcribed from DNA as described previously.
  • the DNA sequence includes a bacteriophage T7 RNA polymerase promoter sequence that allows RNA to be synthesized according to standard techniques. cDNA synthesis during the amplification portion of SELEX is primed by a DNA of the sequence:
  • the DNA primers used to amplify the cDNA in that portion of the SELEX cycle include, in one of them, the T7 promoter; that PCR primer has the sequence:
  • the initial randomized DNA included the sequence with the T7 promoter, 30 randomized positions, and the fixed sequence complementary to PCR primer 1.
  • the RNA that is used to begin the first cycle of SELEX thus has the sequence:
  • the primary sequence may be a candidate for an antagonist species, but those members of the series have yet to be tested as inhibitors of DNA synthesis. It appears that the fixed sequence just 5' to the UAAGGAGGCCAC must participate in the emergence of this subset, or the shared 12 nucleotides would have been positioned variably within the randomized region.
  • Example 12 Isolation of a nucleic acid ligand for E. coli Ribosomal Protein S1:
  • the E. coli 30S ribosomal protein S1 is the largest of the 21 30S proteins.
  • the protein has been purified based on its high affinity for polypyrimidines, and is thought to bind rather tightly to single stranded polynucleotides that are pyrimidine rich. It was questioned if the RNA identified as a ligand solution by SELEX was in any way more information rich than a simple single stranded RNA rich in pyrimidines.
  • RNAs, DNAs, cDNA primer (PCR primer 1), and PCR primer 2 were identical to those used for HSV-1 DNA polymerase (see, Example 11).
  • the binding buffer contained 100 mM ammonium chloride plus 10 mM magnesium chloride plus 2 mM dithiothreitol plus 10 mM Tris-chloride, pH 7.5. Binding was at room temperature, and complexes were once again separated by nitrocellulose filtration. The protein was purified according to I. Boni et al., European J. Biochem., 121 , 371 (1992).
  • S1 protein ligands Most of the S1 protein ligands contain:
  • the base pairs are shown as lines and dashes, the selections of bases from the randomized region are shown in upper case letters, Y is a pyrimidine, R is a purine, N- N' means any base pair, N means any nucleotide, and the lower case letters are from the fixed sequence used for PCR amplifications.
  • Example 13 Isolation of a nucleic acid ligand to HIV-1 rev protein
  • the HIV-1 rev protein's RNA-recognition site appears to be complex, and its function is essential to the productive infection of an epidemic viral disease. See, Olsen et al. , Science, vol. 247, pp. 845-848 (1990).
  • the SELEX process on this protein was performed in order to learn more about the recognition element and to isolate a ligand to the target protein.
  • a candidate mixture was created with a 32 nucleotide long random region as described above in Example 2. It was found that the rev protein could saturably bind the starting candidate mixture with a half-maximal binding occuring at about 1 x 10(-7) M as determined by nitocellulose assays. All RNA-protein binding reactions were performed in a binding buffer of 200 mM KOAc, 50 mM Tris-HCl pH 7.7, 10 mM dithiothreitol. RNA and protein dilutions were mixed and stored on ice for 30 minutes then transferred to 37 degrees for 5 minutes.
  • cDNA product was purified after every third round of selection to avoid anomalously sized species which will typically arise with repeated rounds of SELEX. After 10 rounds the sequence in the variable region of the RNA population was nonrandom as determined by dideoxy-chain termination sequencing. 53 isolates were cloned and sequenced.
  • RRE rev responsive element
  • sequences were also searched for related subsequences by a procedure based on that described in Hertz et al. Comput. Appl. Biosci., vol.6. pp.81-92 (1990). Two significant patterns were identified. Each isolate was scored to identify its best match to the patterns, the results of which can be seen in Table 13.
  • the related subsequences motifs are presented by the common secondary structures in similiar conformations; that is, the first sequence UUGAGAUACA is commonly found as Loop 1 plus the 3' terminal CA, which pairs with the UG at the 5' end of the second information rich sequence UGGACUC (commonly Loop 3). There is also a strong prediction of base-pairing of the GAG of sequence I to the CUC of sequence II.
  • Motif II is similiar to Motif I in that the subsequence GAUACAG predominates as a loop opposite CUGGACAC with a similiar pairing of CA to UG. Motif II differs in the size of the loops and some of the sequence particularly in the absence of predicted base-pairing across the loop. One domain of the wild-type RRE closely resembles Motif II. Motif III is the least like all the other sequences, although it is characterized by two bulged U's adjacent to base-paired GA-UC as in Motif I.
  • the binding curves of Figure 24 shows that the evolved population (P) improved approximately 30fold for binding to rev protein relative to the starting candidate mixture.
  • the binding of the wild-type RRE closely resembles that of the most abundant clone, 1c.
  • This experiment also illustrates how sensitive the rev binding interaction is to secondary structure. Isolates 6a and 6b are identical in the regions of high information content, but are quite different at the level of secondary structure resulting in changes at three nucleotide positions. These changes, which predict the base-pairing of Stem 1, lower the affinity of 6b by 24fold. Sensitivity to secondary structure anomalies is further illustrated by the binding of isolate 17 as shown in Figure 25. Isolate 17 has the maximum information score as shown in Table 12.
  • RNA sequences determined by SELEX to be rev ligands may be classified by primary and secondary structure.
  • a consensus emerges of an asymmetric bulge flanked by two helices in which are configured specifically conserved single and double stranded nucleotides. Although base-pairing across the bulge is predicted for many of the sequences isolated (Motif I), it may not be essential or crucial to rev interaction.
  • Optimal sizes for Loop 1 appear to be 8 (Motif I) or 6 (Motif III) where there is an observed penalty for sizes of 9 or 3.
  • Optimal sizes for Loop 3 are 5 and 4.
  • the interaction of rev with the various domains of these ligands may be additive.
  • Motif II resembles Moftif I primarily at the junction of Loops 1 and 3 at Stem 2.
  • Motif III resembles Motif I at the junction of Loops 1 and 3 at Stem 1.
  • Consensus diagrams of the Motif I and II nucleic acid solutions for HIV-rev are shown in Figures 29 and 30.
  • k + i is the rate constant for association of free protein and free RNA species- i
  • k - i is the rate constant for dissociation of protein-RNA species- i complexes
  • n is the number of RNA sequences with a unique set of rate constants.
  • [ P:RNA ] 2 ⁇ [ P ] ⁇ [ RNA ] ( [ P ] + [ RNA ] + ⁇ K d ⁇ ) + ( [ P ] + [ RNA ] + ⁇ K d ⁇ ) 2 ⁇ 4 ⁇ [ P ] ⁇ [ RNA ]
  • [ P:RNA ] is the concentration of all protein-RNA complexes.
  • [ RNA ] is the concentration of the total RNA pool
  • [ RNA ] [ P ]/2 is the total RNA concentration that binds half the protein
  • F i o [ RNA i ] / [ RNA ].
  • Partitioning Any method of partitioning different species of nucleic acid sequences-including filter binding (Tuerk & Gold, 1990), gel-mobility shifts (Blackwell & Weintraub, 1990), affinity chromatogyaphy (Ellington & Szostak, 1990; Green et al., 1990; Oliphant & Struhl. 1987; Oliphant & Struhl, 1988), antibody precipitation, phase partitions, or protection from nuclecolytic cleavage (Robertson & Joyce, 1990) ⁇ could be used to advantage with SELEX.
  • RNA i filt is the number of molecules of RNA species- i collected
  • Vol is the volume of the reaction mixture passed through the filter
  • [ P:RNA i ] is the equilibrium concentration of protein-RNA species- i complex calculated as described in the preceding section
  • BG is the fraction of free RNA collected as nonspecific background
  • [ RNA i ] is the total RNA species- i concentration.
  • RNA in tightly bound-complexes may be retained better on the filter than RNA in weakly bound complexes. Whenever this is true, enrichment for RNA molecules that bind tightly would be further enhanced in each round of SELEX. On the other hand, if some molecules could not be eluted from the filter as well as others, their enrichment would be reduced.
  • FR is the fraction of RNA that can be recovered from the filter
  • RNA i filt is the number of molecules of RNA species- i collected on the filter as calculated with Eq. (11).
  • the value of FR is assumed to be constant and is determined both by the fraction of protein-RNA complex that sticks to the filter and by the fraction of RNA in those complexes that can be recovered and copied by reverse transcriptase to make cDNA for PCR.
  • corrected binding curves must be generated by including the appropriate concentration of these molecules in each titration.
  • nonamplifiable competitor molecules in each round of SELEX can include a reduction in adsorption of amplifiable ligand molecules to any nonspecific sites on labware, a reduction in binding of amplifiable ligand molecules to any nonspecific sites on the target protein, or a reduction in the fraction of free amplifiable molecules collected as nonspecific background on "false-partitioning" sites ⁇ but only when such sites are present in significant numbers and are effectively saturated by the amount of nonspecific competitor molecules used. If these conditions are not met, the effect of adding nonspecific competitor molecules essentially is the same as reducing the amount of protein used
  • the concentration of every RNA species can be computed by reiteration of Eqs. (7)-(15), with F i l for each RNA species from one round being the starting fraction F i 0 in the next [see Eq. (9)].

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Claims (40)

  1. Verfahren, umfassend die spezifische Bindung in vitro eines Nucleinsäureliganden an ein Target-Molekül, die keine Bindung zwischen Nucleinsäuren ist; worin, sofern das Target-Molekül ein Protein ist, es ein Protein ist, das Nucleinsäuren nicht als Teil seiner biologischen Funktion bindet, und worin der Nucleinsäureligand durch ein Verfahren identifiziert wurde, das die folgenden Schritte umfasst:
    (a) Kontaktieren eines Gemischs von Nucleinsäuren mit dem Target unter Bedingungen, die für Bindung günstig sind;
    (b) das Trennen ungebundener Nucleinsäuren von jenen Nucleinsäuren, die sich an Target-Moleküle gebunden haben;
    (c) das Dissoziieren der Nucleinsäure-Target-Paare;
    (d) die Amplifikation der Nucleinsäuren, die aus den Nucleinsäuren-Target-Paaren dissoziiert wurden, um ein an Liganden angereichertes Gemisch von Nucleinsäuren zu erhalten;
    (e) das Wiederholen der Schritte des Bindens, Trennens, Dissoziierens und Amplifizierens in so vielen Zyklen wie erwünscht, um den/die Liganden zu erhalten, der/die sich spezifisch an das Target-Molekül bindet/binden.
  2. Verfahren nach Anspruch 1, worin das Verfahren verwendet wird:
    - für die Detektion, Quantifizierung oder Reinigung von Target-Molekülen;
    - für die Detektion, Quantifizierung, Isolierung oder Reinigung eines Target-Proteins;
    - in einem Test;
    - in einem Diagnoseverfahren;
    - bei Zellsortierung;
    - als ein Inhibitor für Target-Molekülfunktion;
    - als eine Sonde oder ein Sequestrationsmittel;
    - um die Gegenwart oder Abwesenheit von einem Target-Molekül in einer Probe nachzuweisen und/oder die Menge dieses Target-Moleküls zu messen;
    - um eine Funktion des Target-Moleküls zu modifizieren; oder
    - um Proteinfunktion zu bewirken, zu inhibieren oder zu fördern.
  3. Verfahren nach Anspruch 1, worin der Ligand ein Reagenz in einem Diagnosetest ist.
  4. Verwendung eines Nucleinsäureliganden bei der Herstellung eines therapeutischen oder diagnostischen Mittels für ein therapeutisches oder diagnostisches Verfahren, das die spezifische Bindung in vivo des Liganden an ein Target-Molekül einbindet, die keine Bindung zwischen Nucleinsäuren ist; worin, sofern das Target-Molekül ein Protein ist, es ein Protein ist, das Nucleinsäuren nicht als Teil seiner biologischen Funktion bindet, und worin der Nucleinsäureligand durch ein Verfahren identifiziert wurde, das die folgenden Schritte umfasst:
    (a) Kontaktieren eines Gemischs von Nucleinsäuren mit dem Target unter Bedingungen, die für Bindung günstig sind;
    (b) das Trennen ungebundener Nucleinsäuren von jenen Nucleinsäuren, die sich an Target-Moleküle gebunden haben;
    (c) das Dissoziieren der Nucleinsäure-Target-Paare;
    (d) die Amplifikation der Nucleinsäuren, die aus den Nucleinsäuren-Target-Paaren dissoziiert wurden, um ein an Liganden angereichertes Gemisch von Nucleinsäuren zu erhalten;
    (e) das Wiederholen der Schritte des Bindens, Trennens, Dissoziierens und Amplifizierens in so vielen Zyklen wie erwünscht, um den/die Liganden zu erhalten, der/die sich spezifisch an das Target-Molekül bindet/binden.
  5. Verfahren oder Verwendung nach einem der Ansprüche 1 bis 4, worin der Ligand oder das Mittel eine Funktion des Target-Moleküls modifiziert.
  6. Verfahren oder Verwendung nach einem der Ansprüche 1 bis 4, worin der Ligand oder das Mittel die Funktion des Targets inhibiert.
  7. Verfahren oder Verwendung nach einem der Ansprüche 1 bis 4, worin der Ligand oder das Mittel die Funktion des Targets aktiviert.
  8. Verfahren oder Verwendung nach einem der Ansprüche 1 bis 4, worin das Target ein Protein ist und der Ligand oder das Mittel die Funktion des Proteins beeinflusst, inhibiert oder fördert.
  9. Verfahren oder Verwendung nach einem der Ansprüche 1 bis 4, worin das Target ein Protein ist und der Ligand die Funktion des Proteins inhibiert.
  10. Verfahren oder Verwendung nach einem der Ansprüche 1 bis 4, worin der Ligand oder das Mittel:
    (i) die katalytische Aktivität von Enzymen beeinflusst;
    (ii) die Funktionalität von Proteinrezeptoren beeinflusst;
    (iii) die Bildung von Proteinmultimeren beeinflusst;
    (iv) Bindung an Rezeptoren beeinflusst;
    (v) die Spezifität von Bindung an Rezeptoren modifiziert;
    (vi) Hormonwirkung modifiziert; oder
    (vii) die Transporteigenschaften von Proteinen modifiziert.
  11. Verwendung nach Anspruch 4, worin der Ligand oder das Mittel zur Verwendung:
    (i) bei der Detektion oder Quantifizierung eines Targetproteins;
    (ii) in einem Test;
    (iii) in einem Diagnoseverfahren;
    (iv) als ein Sequestrationsmittel;
    (v) als ein Wirkstoffzufuhrvehikel; oder
    (vi) als ein Modifikator von Hormonwirkung

    beabsichtigt ist.
  12. Verwendung nach Anspruch 4, worin der Ligand ein Toxin oder ein anderes therapeutisches Mittel auf eine spezifische Targetstelle richtet.
  13. Verwendung nach Anspruch 4, worin der Ligand weiters ein Nicht-Nucleinsäure-Element umfasst, das in der Lage ist, die Nucleinsäure auf eine ausgewählte Stelle im Körper eines Patienten zu richten.
  14. Verfahren oder Verwendung nach einem der vorangehenden Ansprüche, worin der Nucleinsäureligand einzelsträngig ist.
  15. Verfahren oder Verwendung nach einem der Ansprüche 1 bis 13, worin der Ligand einzelsträngige RNA umfasst.
  16. Verfahren oder Verwendung nach einem der Ansprüche 1 bis 13, worin der Ligand einzelsträngige DNA umfasst.
  17. Verfahren oder Verwendung nach einem der vorangehenden Ansprüche, worin der Ligand chemisch modifizierte RNA oder DNA umfasst.
  18. Verfahren oder Verwendung nach Anspruch 17, worin die Modifikation am exozyklischen Cytosin-Amino angeordnet oder 5-Brom-Substitution von Uracil oder Methylierung ist.
  19. Verfahren oder Verwendung nach Anspruch 17 oder 18, worin die Modifikation die Amplifikation der Nucleinsäure nicht stört.
  20. Verfahren oder Verwendung nach einem der vorangehenden Ansprüche, worin der Ligand zumindest 15 Nucleotide enthält.
  21. Verfahren oder Verwendung nach einem der vorangehenden Ansprüche, worin der Ligand eine Vielzahl an Target-spezifischen Ligandensequenzen umfasst.
  22. Verfahren oder Verwendung nach einem der vorangehenden Ansprüche, worin der Ligand eine Vielzahl an Nucleinsäuresequenzen umfasst, die sich an dasselbe Target binden.
  23. Verfahren oder Verwendung nach einem der vorangehenden Ansprüche, worin der Ligand weiters ein Nicht-Nucleinsäure-Element umfasst.
  24. Verfahren oder Verwendung nach einem der vorangehenden Ansprüche, worin der Ligand in Form einer Ligandenlösung vorliegt, die eine Vielzahl an Nucleinsäureliganden umfasst, die eine gemeinsam gehaltene dreidimensionale Struktur aufweisen, die konservierte Komponenten definiert.
  25. Verfahren oder Verwendung nach einem der vorangehenden Ansprüche, worin das Target-Molekül aus Proteinen, Peptiden, Kohlenhydraten, Polysacchariden, Glykoproteinen, Hormonen, Rezeptoren, Antigenen, Antikörpern, Viren, Substraten, Metaboliten, Inhibitoren, Wirkstoffen, Nährstoffen und Wachstumsfaktoren ausgewählt ist.
  26. Verfahren oder Verwendung nach einem der Ansprüche 1 bis 24, worin das Target-Molekül aus Proteinen und Peptiden ausgewählt ist.
  27. Verfahren oder Verwendung nach einem der Ansprüche 1 bis 24, worin das Target-Molekül ein Protein ist.
  28. Verfahren oder Verwendung nach einem der Ansprüche 1 bis 24, worin das Target Bradykinin ist.
  29. Verfahren oder Verwendung nach einem der Ansprüche 1 bis 24, worin das Target Protease ist.
  30. Verfahren oder Verwendung nach einem der Ansprüche 1 bis 24, worin das Target eine Serinprotease ist.
  31. Verfahren oder Verwendung nach Anspruch 30, worin die Serinprotease menschlicher Gewebe-Plasminogenaktivator ist.
  32. Verfahren oder Verwendung nach Anspruch 30, worin die Serinprotease Trypsin ist.
  33. Verfahren oder Verwendung nach Anspruch 30, worin die Serinprotease Elastase ist.
  34. Verfahren oder Verwendung nach Anspruch 30, worin die Serinprotease Chymotrypsin ist.
  35. Verfahren oder Verwendung nach Anspruch 30, worin die Serinprotease Thrombin ist.
  36. Verfahren oder Verwendung nach Anspruch 30, worin die Serinprotease Plasmin ist.
  37. Verfahren oder Verwendung nach einem der Ansprüche 1 bis 24, worin das Target ein Säugetierrezeptor ist.
  38. Verfahren oder Verwendung nach einem der Ansprüche 1 bis 24, worin das Target menschliches Insulin ist.
  39. Verfahren oder Verwendung nach einem der Ansprüche 1 bis 24, worin das Target ein Säugetierhormon oder -faktor ist.
  40. Verfahren oder Verwendung nach Anspruch 39, worin das Hormon oder der Faktor Epinephrin oder Schilddrüsenhormon ist.
EP97200035A 1990-06-11 1991-06-10 Verfahren zur Vervendung von Nukleinsäureliganden Expired - Lifetime EP0786469B1 (de)

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